STANDARD OF
THE JAPAN
ELECTRICAL
MANUFACTURERS’ASSOCIATION

JEM
1480
First edition
2000-11-28
Fifth edition
2023-07-21

Testing Specifications for
FA Control Network [FL-net]

In case of any doubt arising as to this translation version in
English, the original edition of JEM 1480 (J) in Japanese shallprevail.

Reference number
JEM 1480:2023 (J)JEM 1480:2023

CONTENTS
1
2
3

4

5
6

7

Scope .............................................................................................................................. 1
Referred standards .......................................................................................................... 1
Definitions ....................................................................................................................... 1
3.1
FL-net ..................................................................................................................... 1
3.2
Configuration tool interface ..................................................................................... 1
3.3
Test equipment ....................................................................................................... 1
Notation and abbreviations .............................................................................................. 2
4.1
Notation .................................................................................................................. 2
4.2
Abbreviation............................................................................................................ 3
Testing conditions ........................................................................................................... 5
Conformance test ............................................................................................................ 5
6.1
Structure of conformance test ................................................................................. 5
6.2
Testing items .......................................................................................................... 6
6.3
Setting range of major parameters in conformance test ......................................... 10
6.4
Test equipment for conformance test .................................................................... 11
6.5
Special instructions about equipment under test (EUT) ......................................... 15
6.6
Test tables for the conformance test ..................................................................... 16
6.7
Performance measurement ................................................................................. 574
Interconnectability test ................................................................................................. 578
7.1
Test structure ..................................................................................................... 578
7.2
Test objects ........................................................................................................ 582
7.3
Basic parameters for testing ............................................................................... 582
7.4
Cyclic transmission echo back test...................................................................... 595
7.5
Message transmission echo back test ................................................................. 597
7.6
Device-level network test .................................................................................... 599
7.7
IP communication superimposition test ............................................................... 601
7.8
Overview of interconnectability test ..................................................................... 602
Explanation ................................................................................................................. 626

JEM 1480:2023

JEM 1480:2023

The Japan Electrical Manufacturers’ Association Standard____________TESTING SPECIFICATIONS FOR
FA CONTROL NETWORK [FL-NET]

FOREWORD FOR THE ENGLISH EDITION
This document is the translation version in English of JEM 1480 (J) that is the original edition
and is written in Japanese, and is provided for convenience to users and developers of FL-net
who feel difficult to understand Japanese language. However, the JEM 1480 (J) is the original
and is prevailing while this document is intended for reference only.
This document may be revised to improve the English expression without noticeable version
change while the original JEM 1480 (J) is unchanging.
The Working Group on Test and Certification of the FL-net Promotion Committee in the JEMA(The Japan Electrical Manufacturers’ Association), is responsible for and maintains thetranslation of the JEM 1480 (J), and, for that purpose, any comments and questions on the
English expression are welcome and helpful for future improvement.

JEM 1480:2023

FOREWORD
This document is the standard of the Japan Electrical Manufacturers’ Association (the JEMA).
After the deliberations by the Working Group on Test and Certification, the FL-net Promotion
Committee and the Standardization Committee in the JEMA, this document had been approved
as the JEMA standard by the Steering Technical Committee in the JEMA.
It should be remarked that some parts of this standard may conflict with patent rights totechnical properties, patent right registration applications after application public release,patent rights for utility articles, or patent right registration applic ation for utility articles after
application public release. The Japan Electrical Manufacturers’ Association accepts no
responsibility for confirmations of such patent rights to technical properties, patent rightapplications after application public release, patent rights for utility articles, or patent rightapplications for utility articles after application public release.

– 1 –JEM 1480:2023

TESTING SPECIFICATIONSFOR FA CONTROL NETWORK [FL-NET]

1

Scope

This document defines the verification tests for checking the conformance andinterconnectability of the equipments and the devices that are manufactured in accordance with
the Protocol specification for FA control network [FL-NET].

2

Referred standards

The following JEMA standards are referred to in this document, and thus constitute some
portions of this document. The latest version (including their addenda) of these referred JEMA
standards shall apply. Among these JEMA standards, for those with the year added, the editionof the year mentioned applies, and subsequent revised editions (including amendments) do not
apply. For those JEMA standards without annotation of year, the latest version (including any
amendments) shall be applied.
JEM 1479:2000

Protocol specification for FA control network standard

JEM 1479:2002

Protocol specification for FA control network standard

JEM 1479:2011

Protocol specification for FA control network standard

JEM 1479:2012

Protocol specification for FA control network standard

JIS B 3521:2004

Protocol specification for FA control network standard

JIS B 3521:2021

Protocol specification for FA control network standard

ISO/IEC/IEEE 8802-3 Telecommunications
andexchange
betweeninformation
technology systems - Requirements for local and metropolitan area networks - Part 3:
Standard for Ethernet

3

Definitions

Definitions of main and related terms used in this document are listed below. The definitions
comply with JEM 1479, while some of them are specifically described below.
3.1

FL-netName of the controller-level and device-level network that establishes a communication network
between PLC, RC, NC, and FA controllers or personal computers to which UDP/IP and TCP/IP
superimposition has been added.
Note: Hereafter, the network in this standard means the FL -net.
3.2

Configuration tool interface

A software module that simulates configuration tools. They may use UDP communication or
TCP communication.
3.3

Test equipment

Equipment used to conduct the tests defined in this standard. This standard defines theequipment used for the conformance test, and that for the interconnectability test. The test
equipment for interconnectability test shall be equipment whose accuracy has been verified
through checks consistent with this standard or other means, and which shall possess display

JEM 1480:2023– 2 –capabilities which make it easy to check the test results.

44.1

Notation and abbreviations
Notation

Numbers not especially specified are decimalized. To denote a hexadecimal number, “16#”precedes the number.
Hexadecimal numbers are to be denoted as a two-digit, four-digit, or eight-digit number.
Hexadecimal numbers in eight-digit notation are to be separated by an underscore (_) every
four digits.
Example 1. Decimal number

-12

0

4 782

65 546

Example 2. Hexadecimal number

16#FF

16#00

16#12AE

16#0001_000A

In this standard, “#” precedes a node number.
Example: Node number 1

Node #1“Ver.*.*” is used to denote a version of the protocol specifications in this standard. “*” is adecimal number 0 to 15. The integer part denotes its major version, and the fraction part denotes
its minor version. The collective name of a protocol is expres sed with only its major version(Example: Ver. 2 protocol).
The minor version consists of two figures.
The following versions exist for FL-net:
The version of JEM 1479: 2000 is denoted as “Ver.1.00”.
The version of JEM 1479: 2002 and JIS B 3521: 2004 are denoted as “Ver.2.00”.
The version of JEM 1479: 2011 is denoted as “Ver.3.00”.
The version of JEM 1479: 2012 and JIS B 3521: 2021 is denoted as “Ver.3.01”.
Note that there is no connection compatibility between a Ver.1 device and a Ver.2 device. In
addition, it is also important to note that Ver. 2 devices are also included in the specification ofVer. 3 devices.

– 3 –

4.2

JEM 1480:2023

Abbreviation

Table 1 shows abbreviations used in this standard.
Table 1 – List of abbreviations
Abbreviation

Description

3CWT

three circulation waiting time

AWT

message acknowledge waiting time

BCT

broadcast transmission

BSIZE

current block size

CBN

current fragment block number

C_AD1

common memory area 1 data top address

C_AD2

common memory area 2 data top address

C_SZ1

common memory area 1 data size

C_SZ2

common memory area 2 data sizeDA

destination addressDNAnode address of destination side

H_TYPE

header type

LKS

FA link status

MAJ_VERFA link protocol version (major version)

MFT

allowable minimum frame interval time

MIN_VERFA link protocol version (minor version)

MODE

message mode [FA link protocol version (major
version，minor version), token mode]

MSN

manufacturer model name of node information

M_ADD

message offset-address in virtual address space

M_CTL

message control

M_RLT

message result

M_SZ

message data size in virtual address space

NDN

node name of node information

PAT

participation request frame acceptance time

PDU

protocol data unit

PPT

peer to peer transmission

PRI

message priority

PWT

participation request frame transmission waiting
time

P_TYPE

protocol type

RCT

allowable refresh cycle time

JEM 1480:2023– 4 –Table 1 – List of abbreviations (continued)
RMT

refresh cycle measurement time

RPA

response data by ACKSAsource address

SDU

service data unit

SEQ

sequence number

SNA

node address of source side

TBN

total fragment block number

TCD

transaction code

TFL

total frame octet length of header and dataTW

token watchdog time

TrWT

trigger frame transmission waiting time

ULS

upper layer status

VDN

vender code of node information

VER

program version

V_SEQ

version of sequence number– 5 –5

JEM 1480:2023

Testing conditions

Unless otherwise specified, the general testing conditions defined in Table 2 are applied when
conducting tests:

Table 2 – General testing conditions
Main power supply

Rated voltage, rated frequency

Temperature

15 ºC through 35 ºC

Relative humidity

45% through 85%

Atmospheric pressure

86 kPa through 106 kPa

Manufacturers are required to perform relevant environmental tests (including weather
endurance tests, electrical tests, and mechanical tests) on equipment and devices inaccordance with JIS B 3521 and JEM 1479. These tests are not defined in this standard .

6
6.1

Conformance test
Structure of conformance test

The conformance test employs an equipment under test (EUT), a PC -based conformance test
equipment and a HUB to connect these equipments. The HUB and the equipment are connectedwith category 5e or more UTP cables. Communication speed of the network is 1 0 Mbps, 100
Mbps or 1000 Mbps in accordance with the equipment. The structure of the conformance test
is shown as Figure 1:
Equipment under test
(EUT)

Conformance test
equipment

Category 5e or more UTP

Category 5e or more UTP
HUB

Figure 1 – Structure of conformance test systema)Conformance test equipment : A node installed with the FL -net protocol to carry out
the test. The software for conformance tests must possess a dummy nodes function.
For details about the dummy nodes function, see 6.4 c) 1).

b)

Equipment under test (EUT) : A node undergoes the FL -net protocol behavior test.

c)

Use a switching hub (sw-hub) that has an auto-negotiation function and supports
10 Mbps, 100 Mbps, and 1000 Mbps. Set the hub setting to one of the following
according to the communication speed supported by EUT.

d)

1)

Enable auto-negotiation function

2)

100 Mbps full duplex communication

3)

10 Mbps full duplex communication

In case that the EUT is 100 Mbps-only node or 10/100 Mbps node, the HUB is aswitching hub for 100 Mbps.

JEM 1480:2023

6.2

– 6 –

Testing items

The test objects are listed in Table 3. For details about the individual items of the test, see 6.6.
Table 3 – Test objects
Major test
group

Test group

Initial setting

Initial setting testNew
participation

Normaloperation test

Abnormaloperation test

Halfway
participation

Normaloperation test
Abnormaloperation test

Basic function

Basic operation
test

Node status test

Test objects

Test No.

Table No.

Node number and initialization error flag

V2-001

Table 7

Top address and size of common memory

V2-002

Table8Token watchdog time

V2-003

Table 9Node name, manufacturer name, model nameand transmission frame

V2-004

Table 10

IP address

V2-005

Table 11

Trigger frame, transmission sequence ofparticipation request frame and solicitation
frame

V2-006

Table 12

New participation operation 1

V2-007

Table 13

New participation operation 2

V2-008

Table 14

New participation operation 3

V2-009

Table 15

New participation operation 4

V2-010

Table 16

Node number duplication

V2-011

Table 17

Address duplication

V2-012

Table 18

Discard of abnormal frame (TCD)

V2-013

Table 19

Token mode discordance (trigger frame)V2-014

Table 20

Token mode discordance (participation request
frame)

V2-015

Table 21

Halfway participation of own node (update ofparticipation node management table)

V2-016

Table 22

Halfway participation of other nodes

V2-017

Table 23

Processing at common memory address
overlappingV2-018

Table 24

Node number duplication

V2-019

Table 25

Token mode discordance (own nodeparticipation)

V2-020

Table 26

Token mode discordance (other nodes
participation)

V2-021

Table 27

Refresh cycle measurement time, Allowablerefresh cycle time

V2-022

Table 28

Secession and rejoining of network

V2-023

Table 29

Reissue of token

V2-024

Table 30

Out-ring process，Participation/disengagement flag of the selfnode

V2-025

Table 31

Token multiplication

V2-026

Table 32

Token watchdog time error，Token watchdog
time error flag

V2-027

Table 33

Allowable minimum frame interval time

V2-028

Table 34

Update of participation node managementtable

V2-029

Table 35

– 7 –JEM 1480:2023

Table 3 – Test objects con (continued)
Major test
group

Test group

Cyclictransmission

Normaloperation test

Frame format

V2-030

Table 36

Frame format (divided)

V2-031

Table 37

Abnormaloperation test

Discard of abnormal frame (TBN，CBN)

V2-032

Table 38

Discard of abnormal frame (BSIZE)

V2-033

Table 39

Discard of abnormal frame (TCD)

V2-034

Table 40

Cyclic transmission echo back test (number ofnodes: 2)

V2-035

Table 41

Cyclic transmission echo back test (number ofnodes: 32)

V2-036

Table 42

No response to peer-to-peer message

V2-037

Table 43

ACK error of peer-to-peer message

V2-038

Table 44

Judgment on availability for sending peer-topeer message request

V2-039

Table 45

Version of sequence number setting at
message transmission

V2-040

Table 46

Sequence number setting at message
transmission

V2-041

Table 47

Version of sequence number abnormality at
message transmission

V2-042

Table 48

Version of sequence number abnormality at
message reception

V2-043

Table 49

Sequence number duplication at message
reception

V2-044

Table 50

Sequence number skip at message reception

V2-045

Table 51

Version of sequence number setting at
message transmission

V2-046

Table 52

Sequence number setting at message
transmission

V2-047

Table 53

Abnormaloperation test

Discard of abnormal frame (TCD)

V2-048

Table 54

Peer-to-peer
message
operation test
(server function)

Byte block read, Byte block write

V2-049

Table 55

Word block read, Word block write

V2-050

Table 56

Network parameter read

V2-051

Table 57

Network parameter write

V2-052

Table 58

Start command, Stop command

V2-053

Table 59

Profile read

V2-054

Table 60

Log data read

V2-055

Table 61

Log data clear

V2-056

Table 62

Message echo backV2-057

Table 63

Transparent mode message

V2-058

Table 64

Log data clear

V2-059

Table 65

Transparent mode message

V2-060

Table 66

Continuous
running test

Messagetransmission(basicoperation)

Message basic
function test

Sequence
number and its
version(broadcast) test

Messagetransmission(serverfunction)broadcastmessage
operation

Test objects

Test No.

Table No.

JEM 1480:2023– 8 –Table 3 – Test objects con (continued)
Major test
group

Test group

Messagetransmission(clientfunction)

Peer-to-peer
message
operation test(client function)

Generalpurposecommandserver function

Test objects

Test No.

Table No.

Byte block read

V2-061

Table 67

Byte block write

V2-062

Table 68

Word block read

V2-063

Table 69

Word block write

V2-064

Table 70

Network parameter read

V2-065

Table 71

Network parameter write

V2-066

Table 72

Start command

V2-067

Table 73

Stop command

V2-068

Table 74

Profile read

V2-069

Table 75

Log data read

V2-070

Table 76

Log data clear

V2-071

Table 77

Message echo backV2-072

Table 78

Transparent mode message

V2-073

Table 79

Broadcastmessage
operation

Log data clear

V2-074

Table 80

Transparent mode message

V2-075

Table 81

Basic operation
test
(UDP)

Frame sequence number

V3-001

Table 82

Frame sequence number skip

V3-002

Table 83

Basic operation
test
(TCP)

Connection open, close

V3-003

Table 84

Frame sequence number

V3-004

Table 85

Frame sequence number skip

V3-005

Table 86

Operation test of
single setting
tool (UDP)

IO allocation setting, read

V3-006

Table 87

Token retention time measurement start/end

V3-007

Table 88

General purpose communication data sender
log measurement start/end

V3-008

Table 89

Configuration parameter setting, self nodesetting information parameter read

V3-009

Table 90

Participating node management information
parameter readV3-010

Table 91

Self node management information parameterread

V3-011

Table 92

Node reset

V3-012

Table 93

Network parameter readV3-013

Table 94

Log data readV3-014

Table 95

Log data clear

V3-015

Table 96

Message echo backV3-016

Table 97

Byte block read, Byte block write

V3-017

Table 98

Word block read, Word block write

V3-018

Table 99

Network parameter write

V3-019

Table 100

Profile read

V3-020

Table 101

Start command, Stop command

V3-021

Table 102

IO allocation setting (lock confirmation), read

V3-022

Table 103

IO allocation setting (lock timeout), read

V3-023

Table 104

IO allocation setting (unlock), read

V3-024

Table 105

Token retention time measurement start/end

V3-025

Table 106

General purpose communication data sender
log measurement start/end

V3-026

Table 107

Operation test of
double setting
tools (UDP)– 9 –JEM 1480:2023

Table 3 – Test objects con (continued)
Major test
group

Test group

Generalpurposecommandserver function(continued)

Operation test of
single setting
tool (TCP)

Operation test of
double setting
tools (TCP)

Operation test of
double setting
tools(coexisting UDP
and TCP)

Test objects

Test No.

Table No.

IO allocation setting, read

V3-027

Table 108

Token retention time measurement start/end

V3-028

Table 109

General purpose communication data sender
log measurement start/end

V3-029

Table 110

Configuration parameter setting, self nodesetting information parameter read

V3-030

Table 111

Participating node management information
parameter read

V3-031

Table 112

Self node management information parameterread

V3-032

Table 113

Node reset

V3-033

Table 114

Network parameter read

V3-034

Table 115

Log data read

V3-035

Table 116

Log data clear

V3-036

Table 117

Message echo backV3-037

Table 118

Byte block read，Byte block write

V3-038

Table 119Word block read，Word block write

V3-039

Table 120

Network parameter write

V3-040

Table 121

Profile read

V3-041

Table 122

Start command，Stop command

V3-042

Table 123

IO allocation setting (lock confirmation), read

V3-043

Table 124

IO allocation setting (lock timeout), read

V3-044

Table 125

IO allocation setting (unlock), read

V3-045

Table 126

Token retention time measurement start/end

V3-046

Table 127

General purpose communication data sender
log measurement start/end

V3-047

Table 128

IO allocation setting (lock confirmation), read

V3-048

Table 129

IO allocation setting (lock timeout), read

V3-049

Table 130

IO allocation setting (unlock), read

V3-050

Table 131

Token retention time measurement start/end

V3-051

Table 132

General purpose communication data sender
log measurement start/end

V3-052

Table 133

JEM 1480:2023– 10 –

Table 3 – Test objects con (continued)
Major test
group

Test group

Device levelnetworkfunction

Slave in fixed
setting mode

6.3

Test No.

Table No.

Slave status, actual slave type and simple
setting area

V3-053

Table 134

IO output upon disengagement of the master

V3-054

Table 135

IO output upon remote control flag OFF

V3-055

Table 136

IO input upon remote control flag OFF

V3-056

Table 137

Master in fixed
setting mode

Input and output data

V3-057

Table 138

Output status

V3-058

Table 139

Slave in flexible
setting mode

New participation operation 1

V3-059

Table 140

New participation operation 2

V3-060

Table141

New participation operation 3

V3-061

Table142

New participation operation 4

V3-062

Table143

participation to operating network 1

V3-063

Table144

participation to operating network 2

V3-064

Table145

participation to operating network 3

V3-065

Table146

Disengaging/re-joining of flexible master

V3-066

Table147

Solicitation frame during link establishment

V3-067

Table148

Slave status, actual slave type, and simple
setting confirmation area

V3-068

Table149

IO output upon disengagement of the master

V3-069

Table150

IO output upon remote control flag OFF

V3-070

Table151

IO input upon remote control flag OFF

V3-071

Table152

Joining operation 1

V3-072

Table153

Joining operation 2

V3-073

Table154

Joining operation 3

V3-074

Table155

Disengagement/re-join of flexible slave 1

V3-075

Table156

disengagement/re-join of flexible slave 2

V3-076

Table157

Input and output data

V3-077

Table158

Output status

V3-078

Table159

Measurement of token response time

V2-076

Table160

Master in flexible
setting mode

performancemeasurement

Test objects

performancemeasurement

Setting range of major parameters in conformance test

The setting range of major parameters in the conformance test is shown in Table 4:
Table 4 – Setting range of major parameters
Major Parameter

Minimum Value

Maximum Value

Node number

1

254

Numbers of cyclic frame

1

17

Common memory: Area 1 data top
address

0511

Common memory: Area 2 data top
address0

8 191

Common memory: Area 1 data size

0511

Common memory: Area 2 data size

0

8 191

Number of nodes

2

32

Number of IO of flexible slave

0

4032

Number of IO of fixed slave

0

3968

– 11 –

6.4

JEM 1480:2023

Test equipment for conformance test

The test equipment used in the conformance test must possess the following functions:a)FL-net protocol operating function
except the following:

All functions specified in JIS B 3521 and JEM 1479,−

FL-net node load measurement function (however, the functions as the configuration tool isrequired)−General-purpose command server function (however, the functions as the configuration tool
is required.)b)

Analyzer function Function to analyze whether communication frames flowing throughthe network are normal or not. The basic function for analysis is run while no networktransmission is being performed. The analyzer function must be able to analyze thefollowing objects:
1) Ver. 2 Protocol−

Frame contents of trigger, participation request frame and token at new participation−

Sequence of trigger, participation request frame and token at new participation−

Frame contents of participation request frame and token at halfway participation−

Sequence of participation request frame and token at halfway participation−

Normal circulation sequence at token circulation−

Seceding node sequence at token circulation−

Skip secession sequence at token circulation−

Multiplexing sequence at token circulation−

ACK response sequence of peer-to-peer message−

Resend sequence of peer-to-peer message−

Request and response sequence of peer-to-peer message−

ACK non-response sequence of broadcast message2) Ver. 3 Protocol－Command servers−

Command frame content in UDP communication−

Command frame sequence in UDP communication−

Command frame content in TCP communication−

Command frame sequence in TCP communication

3) Ver. 3 Device Level Network (flexible master)−Content of the trigger and solicitation frames at new participation of the flexible master−

Sequence of the trigger and solicitation frames at new participation of the flexible
master−Content of the trigger and solicitation frames
disengagement/re-joining of the flexible slave−

Sequence of the trigger and solicitation frames from the flexible master at
disengagement/re-joining of the flexible slave

from

a

flexiblemasterat

JEM 1480:2023– 12 –−

IO data from the flexible master to the flexible slave during link establishment−

Output status from the flexible master to the flexible slave during link establishment

4) Ver. 3 Device Level Network (fixed master)−

IO data from the fixed master to the fixed slave during link establishment−

Output status from the fixed master to the fixed slave during link establishment

5) Ver. 3 Device Level Network (flexible slave)−

Participation request and token contents after the flexible slave receives a solicitation
frame at new participation−

Sequence after the flexible slave receives a solicitation frame at new participation−

Behavior of the flexible slave during the disengagement/re -joining of the flexible master−Contents of the input status area of a flexible slave−

Contents of the flexible slave IO that are output during the disengagement of the flexible
master−Contents from the flexible slave that are output to the flexible master−

IO contents from the flexible slave that are output to the flexible master during a statuschange6) Ver.3 Device Level Network (fixed slave)−

Contents of the input status area of a fixed slave−

IO contents that are output during the disengagement of the fixed master−

IO contents from the fixed slave that are output to the fixed master during a statuschangeSimulator functionc)

The following functions are included:1)

Ver.2 Protocol−

Simulated operation of a single node (dummy node)−

Simulated operation of up to 31 nodes (dummy nodes)−

Adjustment of the trigger transmission timing at new participation−

Adjustment of the participation request frame transmission timing at new participation−

One-node secession operation at token circulation−

Skip operation at token circulation−

Token multiplexing at token circulation−

Reading and writing of common memory data in cyclic transmission−

Creation of a multi-frame CBN error in cyclic transmission−

Creation of a multi-frame BSIZE error in cyclic transmission−

Cyclic transmission echo back test−

Peer-to-peer message transmission

– 13 –JEM 1480:2023−

Peer-to-peer message reception−

ACK non-response creation at peer-to-peer message transmission−

ACK status error creation at peer-to-peer message transmission−

Transmission-interval-adjusted continuous transmission of message at peer -to-peer
message transmission−

Creation of abnormal version of sequence number for transmission message at peer to-peer message transmission−

Creation of abnormal sequence number for transmission message at peer -to-peer
message transmission−

Creation of abnormal ACK Version of sequence number at peer -to-peer message
transmission−

Peer-to-peer message transmission echo back test−

Broadcast message transmission−

Broadcast message reception−

Transmission of token mode frames=0−

Transmission of abnormal TCB frames to UDP port = 55 000−

Transmission of abnormal TCB frames to UDP port = 55 001−

Transmission of abnormal TCB frames to UDP port = 55 002−

Change in LKS and ULS of token frames2)

Ver.3 setting tool interface−

Single tool UDP operation−

Double tools UDP operation−

Single tool TCP operation−

Double tools TCP operation−

Mixed operation of one UDP and one TCP−

Request command transmission−

Response command acquisition−

Creation of abnormal sequence number for request frames3)

Ver.3 UDP/TCP superimposition−

General-purpose communication data transmission

4)

Ver.3 Device Level Network−

Simulated operation of a single node (Class 3-7) (dummy node)−

Simulated operation of multiple nodes (including Class 3 -7 coexisting) (dummy nodes)−

Fixed master node simulator−

Fixed slave node simulator

JEM 1480:2023– 14 –−

Flexible master node simulator−

Flexible slave node simulator

Report function
are included:d)

The report function outputs a list of test results. The following functions−

Display of the list of test results−

Report file generation on the test results

The symbols and contents in the files for the report file creation function used in theconformance test are described in Table 5.

Table 5 – Symbols used in the report file on the conformance test
SymbolDescription

BID

Test ID (unique value)

BDate

Date of testing

BTester
BTool

Test executor
Name of testing unit (testing tool)

BTarget
BVersion
BPlaceBMakerBPersonBClassNo

Name of the unit under test
Firmware version of the unit under test
Testing site
Manufacturer of the unit under test
Observer of the test
Class No. of equipment under test

BAnyMaster
BFixMaster
BAnySlave
BFixSlave
BSlaveInScore
BSlaveOutScore
BByteRead

Device level network function－implementation of flexible master
Device level network function－implementation of fixed master
Device level network function－implementation of flexible slave
Device level network function－implementation of fixed slave
Device level network function－number of slave input points
Device level network function－number of slave output points
Message transmission client function－implementation of (peerto-peer) byte block read
Message transmission client function－implementation of (peerto-peer) byte block write
Message transmission client function－implementation of (peerto-peer) word block read
Message transmission client function－implementation of (peerto-peer) word block write
Message transmission client function－implementation of (peerto-peer) network parameter read
Message transmission client function－implementation of (peerto-peer) network parameter write
Message transmission client function－implementation of (peerto-peer) operation command
Message transmission client function－implementation of (peerto-peer) stop command
Message transmission client function－implementation of (peerto-peer) profile read
Message transmission client function－implementation of (peerto-peer) log data read

BByteWrite
BWordRead
BWordWrite
BNetRead
BNetWrite
BRun
BStop
BProfileRead
BLogRead

Value
Sequential numbers of test
units. Automatic increment
by one at each input of test
profile (001 through 999).
System date when test
profile is input
Test profile input item
Fixed value: “FL-net
Ver.3.01 Conformance test
certification tool”
Test profile input item
Test profile input item
Test profile input item
Test profile input item
Test profile input item
Test profile input item (1through 7)
Test profile input item (1:implemented, 0: not
implemented)
Test profile input item
(points)
Test profile input item (1:implemented, 0: not
implemented)

– 15 –JEM 1480:2023

Table 5 – Symbols used in the report file on the conformance test (continued)
SymbolBLogClear1

BServerTcp
BServerMeasure

Description
Message transmission client function－implementation of (peerto-peer) log data clear
Message transmission client function－implementation of (peerto-peer) message echo backMessage transmission client function－implementation of (peerto-peer) transparent mode messages
Message transmission client function－implementation of(broadcast) log data clear
Message transmission client function－implementation of(broadcast) transparent mode messages
Command server function－implementation of TCP protocol
Implementation of command server load measurement function

TID

Test ID (ID for basic items reference)

TTime

Test time

TTestNum
TResult

Test number
Test results

TNote

Note for test results

BMsgBack
BTransMsg1
BLogClearN
BTransMsgN

Value
Test profile input item (1:implemented, 0: not
implemented)(continued)

Test profile input item (1:implemented, 0: not
implemented)
Test profile input item (1:implemented, 0: not
implemented)
Sequential numbers of test
units. Automatic increment
by one at each input of test
result.
System time when test
result is output
Test number
Test result (OK/NG/Not
implemented)
Evaluation criterion number
and reason for NG result
Values measured during
test. Content output
depends on the test
number.

TPar1
Measured value 1
TPar1Max
Maximum value of measured value 1
TPar1Min
Minimum value of measured value 1
TParN
Measured value N (N=2 through 10)
TParNMax
Maximum value of measured value N
TParNMin
Minimum value of measured value N
Note
The letter “B” at the head of the symbol names indicates a basic item. The letter “T” indicates a test object.

6.5
6.5.1

Special instructions about equipment under test (EUT)
Display function

The EUT shall equip any measure such as a peripheral device to confirm items listed in Table
6 through its upper layer.
Table 6 – Confirmation items required to the EUT
Confirmation Items
Node name
Manufacturer name and equipment model name
IP address
Own node status
Participating node management information (upper layer status, top address of the common
memory, size, token watchdog time, and FA link status)
FA link status of the self node management information
Participation information of other nodes (participation/disengagement)
Network management information (allowable minimum frame interval time)
Common memory contents
Operation status of upper layer (RUN/STOP)
Reception of transparent mode message
Byte block read response
Word block read response

JEM 1480:2023– 16 –

Table 6 – Confirmation items required to the EUT (continued)
Network parameter read response
Profile read response
Log data read response
Message echo back response
Input data and status from slave (in case the EUT implements master function)
Output data and status from master (in case the EUT implements slave function)
Slave status

6.5.2

Peripheral equipment and test program

To execute this conformance test, the EUT and its peripheral equipment shall install an upper
layer application program for the test .
6.6

Test tables for the conformance test

6.6.1

Overview

The test tables for the conformance test are Tables 7 through 160. In the parameter setting ofeach table, the recommended values for the token watchdog time and allowable minimum frameinterval time are listed in parentheses. These values may be modified to fit the EUT performance.
In each table, the “conformance test equipment” is referred to as “test equipment”.
The legend for the EUT Class test objects is as follows:−“R” indicates that the test is required.

−“O” indicates that the test is required when the corresponding function is implemented.

−“N” indicates that the test is not required.

Note that EUT peripherals, such as a display, are used to check for the flags, such as ULS and
LKS in the evaluation criteria.
6.6.2

Initial setting

Tests for initial setting are shown in Tables 7 through 11.
Table 7 – Node number and initialization error flag
Test number
Major test group
Test group
Test objects
Test procedure
Evaluation criteria

Test
necessity
identified by
the EUT
class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

V2-001
Initial setting
Initial setting test
Node number, initialization error flag
Set initialization data, then start EUT
Check frames with the test equipment
Confirm that the EUT does not accept any value out of the defined setting range
when setting the node number.
In case the EUT can set a value out of the defined range, set the EUT an abnormal
value and start it. Confirm that no frame is transmitted to the network by the frame
monitoring
Confirm that an initialization error flag is set in the EUT.
R
R
R
R
R
R
R

– 17 –JEM 1480:2023

Table 7 – Node number and initialization error flag (continued)
Setting parameters(node)

Pattern 1 (node number = 0)
EUT
(Theparameters
will vary
according to
the class)

Classes 1, 2
and 3

Classes 4
and 5Classes 6
and 7

Test equipment

Node number0

Token watchdog time

50

Allowable minimum
frame interval time(0)

Area 1 data top address

0

Area 1 data size

0

Area 2 data top address

0

Area 2 data size

0

Node number0

Token watchdog time

50

Allowable minimum
frame interval time(0)

Area 1 data top address

256

Area 1 data size

256

Area 2 data top address

1024

Area 2 data size

1024

Node number0

Token watchdog time

50

Allowable minimum
frame interval time(0)

Area 1 data top address

Optional

Area 1 data size

To be calculated from number of input
points of the slave, the EUT

Area 2 data top address

Optional

Area 2 data size

To be calculated from numbers of input
and output points of the slave, the EUTNA

Pattern 2 (Node number = 255)
EUT (The
parameters
will vary
according to
the class)

Classes 1, 2
and 3

Classes 4
and 5

Node number

255

Token watchdog time

50

Allowable minimum
frame interval time(0)

Area 1 data top address

0

Area 1 data size

0

Area 2 data top address

0

Area 2 data size

0

Node number

255

Token watchdog time

50

Allowable minimum
frame interval time(0)

Area 1 data top address

256

Area 1 data size

256

Area 2 data top address

1024

Area 2 data size

1024

JEM 1480:2023– 18 –

Table 7 – Node number and initialization error flag (continued)
Setting parameters(node)(continued)

EUT (The
parameters
will vary
according to
the class)

Classes 6
and 7

Test equipment
Setting parameters (test
data)

Node number

255

Token watchdog time

50

Allowable minimum
frame interval time(0)

Area 1 data top address

Optional

Area 1 data size

To be calculated from number of input
points of the slave, the EUT

Area 2 data top address

Optional

Area 2 data size

To be calculated from numbers of input
and output points of the slave, the EUTNA

NA

Table 8 – Common memory top address and size
Test number

V2-002Major test group

Initial setting

Test group

Initial setting test

Test objects

Common memory top address and size

Test procedure

Set initialization data, then start the EUT
Check frame with the test equipment

Evaluation criteria

Check following items at Patterns 1 through 4
Confirm that the EUT does not accept any value out of the defined setting range whensetting top address and data size of the common memory.
In case the EUT can set a value out of the defined range, set the EUT an abnormal
value and start it. Confirm that no frame is transmitted to the network by the frame
monitoring.
Confirm that an initialization error flag is set in the EUT.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

N

Class 3

R

Class 4

R

Class 5N

Class 6N

Class 7N

Setting parameters(node)

EUT

Pattern 1(Illegal
Area 1
data topaddressand size)

Node number

1

Token watchdog
time

50

Allowable minimum
frame interval time(0)

Area 1 data top
address

512

Area 1 data size

1

Area 2 data top
address0

Area 2 data size0

– 19 –JEM 1480:2023

Table 8 – Common memory top address and size (continued)
Setting parameters(node) (continued)

EUT(continued)

Pattern 2(Illegalarea 1 data
size)

Pattern 3(Illegalarea 2addressand data
size)

Pattern 4(Illegalarea 2 data
size)

Test equipment
Setting parameter(test data)

Node number

1

Token watchdog
time

50

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

513

Area 2 data top
address0

Area 2 data size

0

Node number

1

Token watchdog
time

50

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address

8192

Area 2 data size

1

Node number

1

Token watchdog
time

50

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

8193

NA

NA

Table 9 – Token watchdog time
Test number

V2-003Major test group

Initial setting

Test group

Initial setting test

Test objects

Token watchdog time

Test procedure

Set initialization data, then start the EUT
Check frame with the test equipment

Evaluation criteria

Confirm that the EUT does not accept any value out of the defined setting range whensetting token watchdog time.
In case the EUT can set a value out of the defined range, set the EUT an abnormal
value and start it. Confirm that no frame is transmitted to the network by the frame
monitoring.
Confirm that an initialization error flag is set in the EUT.

JEM 1480:2023– 20 –

Table 9 – Token watchdog time (continued)
Test
necessity
identified
by the
EUT
class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameters(node)

EUT (The
parameters
will vary
according to
the class)

Classes 1,
2 and 3

Classes 4
and 5Classes 6
and 7

Test equipment
Setting parameter(test data)

NA

Node number

1

Token watchdog
time

0

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog
time

0

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog
time

0

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

To be calculated from number of
input points of the slave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from numbers of
input and output points of the slave,
the EUTNA

– 21 –JEM 1480:2023

Table 10 – Node name, manufacturer, manufacturer model name and transmission frame
Test number

V2-004

Major test group

Initial setting

Test group

Initial setting test

Test objects

Node name, manufacturer, manufacturer model name and transmission frame

Test procedure

Confirm settings of manufacturer name and manufacturer model name.
Set initialization data, then start the EUT and fetch frame.
In case the EUT is class 6, the test equipment transmits a solicitation frame.
Check frame with the test equipment

Evaluation criteria

Confirm that the EUT transmits node name that the test equipment set, manufacturer
name, manufacturer model name, which will be checked by a EUT peripheral device
such as a display, to the network with trigger frame and participation request frame.
Confirm that initialization error flag is reset.
Confirm that the frame sent is UDP protocol and that port number is 55003.

Test
necessity
identified
by the
EUT
class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT (theparameters
will vary
according to
the class)

Classes 1,
2 and 3

Classes 4
and 5

Node number

1

Token watchdog
time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node name"TargetNode"

Manufacturer name

Manufacturer's definition

Manufacturer model
name

Manufacturer's definition

Node number

100

Token watchdog
time

(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node name"TargetNode"

Manufacturer name

Manufacturer's definition

Manufacturer model
name

Manufacturer's definition

JEM 1480:2023– 22 –

Table 10 – Node name, manufacturer, manufacturer model name and transmission frame(continued)
Setting parameter(node) (continued)

Setting parameter(test data)

EUT (theparameters
will vary
according to
the class)(continued)

Classes 6
and 7

Node number

1

Node number

1

Token watchdog
time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

To be calculated from the number of
input points of the slave

Area 2 data top
address0

Area 2 data size

To be calculated from the numbersof input and output points of theslave

Node name"TargetNode"

Manufacturer name

Manufacturer's definition

Manufacturer model
name

Manufacturer's definition

Test equipment

NA

Solicitation frame

Node address ofsource side (SNA)

100

TCD

65014

Data size

16

Contents of data

Slave node number = 16#8001(flexible setting mode, node number= 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = to be calculated
from the number of input points ofthe slave, the EUT
Output data address = depends onnumber of output points of theslave, the EUT* 0 point : 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = to be calculated
from the number of output points ofthe slave, the EUT
Input status address = 16#8000(Area 2, address = 0)
Output status address = 16#9000(Area 2, address = 16#1000)
Lock ID = 100

– 23 –JEM 1480:2023

Table 11 – IP address
Test number

V2-005Major test group

Initial setting

Test group

Initial setting test

Test objects

IP address

Test procedure

Set initialization data, then start the EUT.
In case the EUT is class 6, the test equipment transmits a solicitation frame.
Check frame with the test equipment.

Evaluation criteria

Confirm that IP address part of the communication frame the EUT transmitted to the
network is the setting value by trigger frame.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT (theparameters
will vary
according to
the class)

Classes 1,
2 and 3

Classes 4
and 5

Node number

1

Token watchdog
time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node name"TargetNode"

Manufacturer name

Manufacturer's definition

Manufacturer model
name

Manufacturer's definition

IP address

192.168.250.1

Node number

100

Token watchdog
time

(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node name"TargetNode"

Manufacturer name

Manufacturer's definition

Manufacturer model
name

Manufacturer's definition

IP address

192.168.250.100

JEM 1480:2023– 24 –

Table 11 – IP address (continued)
Setting parameter(node) (continued)

Setting parameter(test data)

EUT (theparameters
will vary
according to
the class)(continued)

Classes 6
and 7

Node number

1

Token watchdog
time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

To be calculated from number of
input points of the slave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from numbers of
input and output points of the slave,
the EUT

Node name"TargetNode"

Manufacturer name

Manufacturer's definition

Manufacturer model
name

Manufacturer's definition

IP address

192.168.250.1

Test equipment

NA

Solicitation frame

Node address ofsource side
(SNA)

100

TCD

65017

Data size

16

Contents of data

Slave node number = 16#8001(flexible setting mode, node number= 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = to be calculated
from the number of input points ofthe slave, the EUT
Output data address = depends onnumber of output points of theslave, the EUT* 0 point : 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = to be calculated
from the number of output points ofthe slave, the EUT
Input status address = 16#8000(Area 2, address = 0)
Output status address = 16#9000(Area 2, address = 16#1000)
Lock ID = 100

6.6.3
a)

New participation

Normal operation in new participation

Tables 12 through 16 show test tables for normal operation in new participation.

– 25 –JEM 1480:2023

Table 12 – Transmission sequence on trigger frame, participation request frame andsolicitation frame
Test number

V2-006

Major test group

New participation

Test group

Normal operation test

Test objects

Transmission sequence on trigger frame, participation request frame and solicitation
frame

Test procedure

Evaluation
criteria

Set upper layer of the EUT into operation and start the EUT only.
If the EUT is class 6, the test equipment transmits a solicitation frame 8000ms after
start of the EUT.
Confirm operation on evaluation criteria 1.
Start the test equipment. Confirm operation on evaluation criteria 2.
Stop the upper layer of the EUT. Confirm evaluation criteria 3.
Criteria 1

Decision criteria varies according to the EUT classClasses 1, 2 and 3 (without flexible master function):
1) Confirm transmitting a trigger frame and a participation request frame in thisorder.
2) Confirm transmitting a trigger frame in every (4200 +/- 10) ms.
3) Confirm transmitting a participation request frame (512 +/- 2) ms after the trigger
frame.
4) Confirm not transmitting solicitation frames.
5) Confirm reception waiting flag is set.
Classes 3 (with flexible master function) and 4:
1) Confirm transmitting a trigger frame, a participation request frame and asolicitation frame in this order.
2) Confirm transmitting trigger frames in every (4200 +/- 10) ms.
3) Confirm transmitting a participation request frame (512 +/- 2) ms after the trigger
frame.
4) Confirm transmitting a solicitation frame (1200 +/- 2) ms after the trigger frame.
5) Confirm reception waiting flag is set.
Class 5:
1) Confirm transmitting a trigger frame and a participation request frame in thisorder.
2) Confirm transmitting trigger frames in every (4216 +/- 10)ms.
3) Confirm transmitting a participation request frame (400 +/- 2)ms after the trigger
frame.
4) Confirm not transmitting solicitation frames.
5) Confirm reception waiting flag is set.
Class 6:
1) Confirm not transmitting frames until the test equipment transmits a solicitation
frame.
2) Confirm transmitting a trigger frame and a participation frame in this order after asolicitation frame from the test equipment.
3) Confirm transmitting trigger frames in every (4208 +/- 10) ms.
4) Confirm transmitting a participation request frame (8 +/- 2) ms after the trigger
frame.
5) Confirm not transmitting solicitation frames..
6) Confirm reception waiting flag is set.
Class 7:
1) Confirm transmitting a trigger frame and a participation request frame in thisorder.
2) Confirm transmitting trigger frames in every (4208 +/- 10) ms.
3) Confirm transmitting a participation request frame (8 +/- 2) ms after the trigger
frame.
4) Confirm not transmitting solicitation frames..
5) Confirm reception waiting flag is set.

JEM 1480:2023– 26 –

Table 12 – Transmission sequence on trigger frame, participation request frame andsolicitation frame (continued)
Evaluation
criteria(continued)

Test
necessity
identified by
the EUT
class

Criteria 2

Confirm that the test equipment transmits first token and that the token circulates 3
times.
Confirm that values on common memory and token watchdog time of the test
equipment in the participation node management table of the EUT are the same as
those setting values at the test equipment
Confirm that the test equipment participates to the network. The participation status isconfirmed by self node participation table and participation node management table.
Confirm status of the EUT that ULS (upper layer status) RUN flag is "1", upper layer
operation signal error flag of LKS (FA link status) is "0", address duplication detection
flag is 0 and statuses of common memory validity notification flag and common
memory setting complete flag are the same as those that the manufacturer intents.

Criteria 3

Confirm that ULS (upper layer status) RUN flag of the EUT is "0".

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter (node)

EUT(parameters
will vary
according to
the class)

Classes 1, 2
and 3
(without
flexiblemasterfunction)

Classes 3(with flexible
masterfunction) and
4

Node number

128

Token watchdog
time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node name"TargetNode"

Manufacturer name

Manufacturer's definition

Manufacturer model
name

Manufacturer's definition

Node number

128

Token watchdog
time

(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node name"TargetNode"

Manufacturer's
name

Manufacturer's definition

Manufacturer's
model name

Manufacturer's definition

IO allocation setting(number of control
slaves)10

– 27 –JEM 1480:2023

Table 12 – Transmission sequence on trigger frame, participation request frame andsolicitation frame (continued)
Setting parameter (node)

EUT(parameters
will vary
according to
the class)

Classes 3(with flexible
masterfunction) and4

IO allocation setting(slave setting) (N =0 through 9)Class 5

Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node name
Manufacturer name
Manufacturer model
name
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address

Classes 6
and 7

Area 1 data size

Area 2 data top
address
Area 2 data size

Node name
Manufacturer name
Manufacturer model
name

Slave node number = 16#8001+N(flexible setting mode, node
number = N + 1
Input data address = 16#0000+ (4 x N)(Area 1, address = 4 x N)
Input data size = 4
Output data address =16#0100 + (4 x N)
(Area 1, Address = 256 + 4 x
N)
Output data size = 4
Input status address =16#8000 + (16 x N)
(Area 2, address = 16 x N)
Output status address =16#8400 + (16 x N)
(Area 2, address = 1024 + 16
x N)
100
(100)
(0)
256
256
1024
1024
"TargetNode"
Manufacturer's definition
Manufacturer's definition
2
(50)
(0)
Depends on the number of
input point of the slave, theEUT:* 0 point: 0* 1 point or more: 4
To be calculated from thenumber of input points of theslave, the EUT
16
To be calculated from thenumbers of input and output
points of the slave, the EUT.
"TargetNode"
Manufacturer's definition
Manufacturer's definition

JEM 1480:2023– 28 –

Table 12 – Transmission sequence on trigger frame, participation request frame andsolicitation frame (continued)
Setting parameter (node)(continued)

EUT (The
settings willvary
according to
the class)

Classes 1,
2, 3, 4 and5Classes 6
and 7

Setting parameter (testdata)

Solicitation frame

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node address ofsource side (SNA)TCD
Data size
Contents of data

3 (Controller)
1
50
0
64
32
128
16
3 (Controller)
1
50
0
256
32
1024
16
1
65017
16
Slave node number = 16#8002(Flexible setting mode, node
number = 2)
Input data address =According to number of input
points of the slave, the EUT* 0 point: 16#0000(Area 1, address = 0)
1 point or more: 16#0004(Area 1, address = 4)
Input data size = To be
calculated from the number of
input points of the slave, theEUT
Output data address =According to number of output
points of the slave, the EUT* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8010(Area 2, address = 16)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 128

– 29 –JEM 1480:2023

Table 12 – Transmission sequence on trigger frame, participation request frame andsolicitation frame (continued)
Setting parameter (testdata) (continued)

EUT (The
parameters
will vary
according to
the class)

Classes 1,
2, 3, 4 and5Classes 6
and 7

Test equipment

Participation nodemanagement table
data:
Top address and sizeof node #1 common
memory and FA linkstatusArea 1 data top address = 64

Participation nodemanagement table
data:
Top address and sizeof node #1 common
memory and FA linkstatusArea 1 data top address = 256

Self node status

Criteria 1: waiting-for-receive
flag is ON

FA link status

Criteria 2:
participation/disengaging flag
is ON

LES

16#60 or 16#61

Upper layer operation
statusCriteria 2: RUN/STOP is ON

Area 1 data size = 32
Area 2 data top address = 128
Area 2 data size = 16
FA link status (participationflag) = setArea 1 data size = 32
Area 2 data top address =1024
Area 2 data size = 16
FA link status (participationflag) = set

Criteria 3: RUN/STOP in OFF

Table 13 – New participation operation 1
Test number

V2-007

Major test group

New participation

Test group

Normal operation test

Test objects

New participation operation 1

Test procedure

Start the EUT, then start the test equipment
In case the EUT is class 6, the test equipment transmits a solicitation frame.
The test equipment transmits a trigger frame (4200 + 200)ms after the EUT transmits atrigger frame. (Because the EUT transmits a trigger frame first, the test equipment
does not transmit one at normal timing.)

Evaluation criteria

Confirm the EUT transmits a participation request frame (T +/- 2)ms after the test
equipment transmits the trigger frame. Value T varies according to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: T = 4* Class 5: T = 400
Confirm the EUT transmits the first token frame.
Confirm the token frame circulates 3 times.
Confirm the first token frame is transmitted more than (1200 - 2)ms and less than
(1200 + EUT token watchdog time)ms after the trigger frame.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7RJEM 1480:2023– 30 –

Table 13 – New participation operation 1 (continued)
Setting parameter(node)

EUT (theparameters
will vary
according to
the class)

Classes 1, 2
and 3

Class 4

Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node name"TargetNode"

Manufacturer name

Manufacturer's definition

Manufacturer model
name

Manufacturer's definition

Node number

1

Token watchdog time(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node name"TargetNode"

Manufacturer name

Manufacturer's definition

Manufacturer model
name

Manufacturer's definition

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node name"TargetNode"

Manufacturer name

Manufacturer's definition

Manufacturer model
name

Manufacturer's definition

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

– 31 –JEM 1480:2023

Table 13 – New participation operation 1 (continued)
Setting parameter(node)

EUT (The
parameters
will vary
according to
the class)

Classes 6
and 7(continued)

Test equipment

Setting parameter(test data)

Solicitation frame

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

Node name"TargetNode"

Manufacturer name

Manufacturer's definition

Manufacturer model
name

Manufacturer's definition

Implementation class

3 (Controller)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time0

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data top
address0

Node address ofsource side (SNA)

128

TCD

65017

Data size

16

Contents of data

Slave node number = 16#0001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 128

JEM 1480:2023– 32 –

Table 14 – New participation operation 2
Test number

V2-008Major test group

New participation

Test group

Normal operation test

Test objects

New participation operation 2

Test procedure

Start the EUT, then start the test equipment
In case the EUT is class 6, the test equipment transmits a solicitation frame.
The test equipment transmits a trigger frame (4200 - 200) ms after the EUT transmits atrigger frame. (After the test equipment transmits the trigger frame, the EUT starts
participation operation without transmitting a trigger frame.)

Evaluation criteria

Confirm that the EUT transmits a participation request frame (T +/- 2)ms after the test
equipment transmits a trigger frame. Value T varies according to the EUT class.
* Classes 1, 3, 4, 6 and 7: T = 4* Class 5: T = 400
Confirm that the EUT transmits the first token frame.
Confirm that the token frame circulates 3 times.
Confirm that the first token frame is transmitted more-than--(1200 - 2)ms and lessthan-(1200 + EUT token watchdog time)ms after the trigger frame.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT (The
parameter
will vary
accordingto theclass)Classes 1,
2 and 3

Class 4

Class 5

Node number

1

Token watchdog time

(50)

Allowable minimum frameinterval time(0)

Area 1 data top address

0

Area 1 data size

0

Area 2 data top address

0

Area 2 data size

0

Node number

1

Token watchdog time(100)

Allowable minimum frameinterval time(0)

Area 1 data top address

256

Area 1 data size

256

Area 2 data top address

1024

Area 2 data size

1024

IO allocation setting

optional

Node number

100

Token watchdog time(100)

– 33 –JEM 1480:2023

Table 14 – New participation operation 2 (continued)
Setting parameter(node) (continued)

EUT (The
parameters
will vary
accordingto theclass)Class 5(condign)

Classes 6
and 7

Test equipment

Setting parameter(test data)

Solicitation frame

Allowable minimum frameinterval time(0)

Area 1 data top address

256

Area 1 data size

256

Area 2 data top address

1024

Area 2 data size

1024

Node number

1

Token watchdog time

(50)

Allowable minimum frameinterval time(0)

Area 1 data top address

0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top address

0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

Implementation class

3 (Controller)

Node number

254

Token watchdog time

50

Allowable minimum frameinterval time0

Area 1 data top address

0

Area 1 data size

0

Area 2 data top address

0

Area 2 data size

0

Node address of sourceside (SNA)

128

TCD

65017

Data size

16

Contents of data

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT
Output data address =According to the number of
output points of the slave, theEUT* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100( Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)

JEM 1480:2023– 34 –

Table 14 – New participation operation 2 (continued)
Setting parameter(test data)(continued)

Solicitation frame(continued)

Contents of data(continued)

Output status address =16#8400(Area 2, address = 1024)
Lock ID = 128

Table 15 – New participation operation 3
Test number

V2-009Major test group

New participation

Test group

Normal operation test

Test objects

New participation operation 3

Test procedure

Start the EUT, then start the test equipment
In case the EUT is class 6, the test equipment transmits a solicitation frame
The test equipment transmits a trigger frame (4200 + 200)ms after the EUT transmits atrigger frame. (Because the EUT transmits a trigger frame first, the test equipment
does not transmit one at normal timing.)

Evaluation criteria

Confirm that the EUT transmits a participation request frame (T +/- 2)ms after the test
equipment transmits a trigger frame. Value T varies according to the class of the EUT.
* Classes 1, 2, 3 and 4: T = 1016
* Class 5: T = 400* Class 6: T = 996* Class 7: T = 8
Confirm that the EUT transmits the first token frame
Confirm that the token frame circulates 3 times.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT (The
parameters
will vary
according to
the class)

Classes 1, 2
and 3

Class 4

Node number

254

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

254

Token watchdog time(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size256

– 35 –JEM 1480:2023

Table 15 – New participation operation 3 (continued)
Setting parameter(node)

EUT (The
parameters
will vary
according to
the class)

Class 4
(continued)

Class 5Class 6Class 7

Test equipment

Area 2 data top
address

1024

Area 2 data size

1024

IO allocation setting

Optional

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

249

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

Node number

2

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address

According to the number of
input points of the slave, theEUT:* 0 point: 0* 1 point or more: 4

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address

16

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

Implementation class

3 (Controller)

Node number

1

Token watchdog time

50

Allowable minimum
frame interval time0

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

JEM 1480:2023– 36 –

Table 15 – New participation operation 3 (continued)
Setting parameter(node)(continued)

Test equipment(continued)

Area 2 data size
(continued)

0

Setting parameter(test data)

Solicitation frame

Node address ofsource side (SNA)

128

TCD

65017

Data size

16

Contents of data

Slave node number = 16#80F9(Flexible setting mode, node
number = 249
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT
Output data address =According to the number of
output points of the slave, theEUT* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100( Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 128

– 37 –JEM 1480:2023

Table 16 – New participation operation 4
Test number

V2-010Major test group

New participation

Test group

Normal operation test

Test objects

New participation operation 4

Test procedure

Start the EUT, then start the test equipment
In case the EUT is class 6, the test equipment transmits a solicitation frame.
The test equipment transmits a trigger frame (4200 + 200)ms after the EUT transmits atrigger frame. (Because the EUT transmits a trigger frame first, the test equipment
does not transmit one at normal timing.)

Evaluation criteria

Confirm that the EUT transmits a participation request frame (T +/- 2)ms after the test
equipment transmits a trigger frame. Value T varies according to the class of the EUT.
* Classes 1, 2, 3 and 4: T = 1016
* Class 5: T = 400* Class 6: T = 996* Class 7: T = 8
Confirm that the EUT transmits the first token frame
Confirm that the token frame circulates 3 times.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7RJEM 1480:2023– 38 –

Table 16 – New participation operation 4 (continued)
Setting parameter(node)

EUT (The
parameters
will vary
according to
the class)

Classes 1, 2
and 3

Class 4

Class 5Class 6Class 7

Node number

254

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

254

Token watchdog time(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

IO allocation setting

Optional

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

249

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

Node number

2

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address

According to the number of
input points of the slave, theEUT:* 0 points: 0* 1 points or more: 4

– 39 –JEM 1480:2023

Table 16 – New participation operation 4 (continued)
Setting parameter(node) (continued)

EUT (The
parameters
will vary
according to
the class)(continued)

Class 7
(continued)

Test equipment

Setting parameter(test data)

Solicitation frame

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

Implementation class

3 (Controller)

Node number

1

Token watchdog time

50

Allowable minimum
frame interval time0

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node address ofsource side (SNA)

128

TCD

65017

Data size

16

Contents of data

Slave node number = 16#00F9(Flexible setting mode, node
number = 249)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 128

JEM 1480:2023b)– 40 –

Abnormal operation in new participation Table 17 to Table 21 show the test tables forabnormal operation in new participation.

Table 17 – Node number duplication
Test number

V2-011

Major test group

New participation

Test group

Abnormal operation test

Test objects

Node number duplication

Test procedure

Start the test equipment after the EUT becomes in stable operation.
In case the EUT is class 6, the test equipment transmits a solicitation frame.
The test equipment transmits a participation request frame in 300ms.

Evaluation criteria

Confirm followings after the test equipment transmits the participation request frame:
The EUT does not transmit a participation request frame.
The EUT sets node number duplication flag.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT (The
parameters willvary according
to the class)

Classes 1,
2 and 3

Classes 4
and 5Classes 6
and 7

Node number

100

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

IO allocation setting(Class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

– 41 –JEM 1480:2023

Table 17 – Node number duplication (continued)
Setting parameter(node)

EUT (The
parameters willvary according
to the class)

Test eq1uipment(The parameters
will vary
according to the
EUT class)

Classes 6
and 7(continued)

Area 2 data top
address
Area 2 data size

Classes 1,
2, 3, 4 and5Classes 6
and 7

Setting parameter(test data)

Solicitation frame

Area 1 data size

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node address ofsource side (SNA)TCD
Data size
Contents of data

To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
100
50
0
0
0
0
0
3 (Controller)
1
50
0
0
0
0
0
128
65017
16
Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)

JEM 1480:2023– 42 –

Table 17 – Node number duplication (continued)
Setting parameter(test data)(continued)

Solicitation frame (continued)

Contents of data(continued)

Output status address =16#8400(Area 2, address = 1024)
Lock ID = 128

Table – 18 Address duplication
Test number

V2-012Major test group

New participation

Test group

Abnormal operation test

Test objects

Address duplication

Test procedure

Start the test equipment after the EUT is in stable operation.
In case the EUT is class 6, the test equipment transmits a solicitation frame.
Execute tests with test data of patterns 1 through 3 in this order. (If the EUT is class 6
or 7 and number of input points of slave is 0 point, execute tests with test data ofpatterns 1 and 2 in this order.)Evaluation criteria

Confirm followings at each test data of patterns 1 through 3.
The EUT set top address and size of the common memory to 0.
The test equipment transmits a participation request frame before the EUT transmits
the one.
Token frame circulates.
The EUT set address duplication detection flag.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

N

Class 3

R

Class 4

R

Class 5RClass 6R (The test data pattern applied varies according to the number of input points of theslave)* 0 point: Patterns 1 and 2* 1 point of more: Patterns 1 through 3Class 7R (The test data pattern applied varies according to the number of input points of theslave)* 0 point: Patterns 1 and 2* 1 point of more: Patterns 1 through 3

Setting parameter(node)

EUT (The
parameters willvary according
to the class)

Classes 1, 3
and 4

Class 5

Node number

254

Token watchdog
time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

IO allocation setting(In case of class 4)

Optional

Node number

100

Token watchdog
time

(100)

Allowable minimum
frame interval time(0)

– 43 –JEM 1480:2023

Table – 18 Address duplication (continued)
Setting parameter(node) (continued)

EUT (The
parameters willvary according
to the class)(continued)

Class 5
(continued)

Classes 6
and 7

Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size

Test equipment
Pattern 1(Theparameters willvary according
to the EUT
class.)Classes 1, 3
and 4

Class 5Classes 6
and 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

256
256
1024
1024
2
(50)
(0)
According to the number of
input points of the slave,
the EUT* 0 point: 0* 1 point or more: 4
To be calculated from thenumber of input points ofthe slave, the EUT.
16
To be calculated from thenumbers of input andoutput points of the slave,
the EUT
3 (Controller)
1
50
0
4
4
64
64
3 (Controller)
1
100
0
256
256
1024
1024
3 (Controller)
150
0According to the number of
input points of the slave,
the EUT* 0 point: 0* 1 point or more: 4
To be calculated from thenumber of input points ofthe slave, the EUTJEM 1480:2023– 44 –

Table – 18 Address duplication (continued)
Setting parameter(node) (continued)

Test equipment
Pattern 1(The parameters
will vary
according to the
EUT class.)

Classes 6
and 7

Test equipment
Patter 2(The parameters
will vary
according to the
EUT class)

Classes 1, 3
and 4

Class 5Classes 6
and 7

Area 2 data top
address

16

Area 2 data size

To be calculated from thenumbers of input andoutput points of the slave,
the EUT

Implementation class

3 (Controller)

Node number

1

Token watchdog time

50

Allowable minimum
frame interval time0

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address

127

Area 2 data size

64

Implementation class

3 (Controller)

Node number

1

Token watchdog time100

Allowable minimum
frame interval time0

Area 1 data top
address0

Area 1 data size

256

Area 2 data top
address

2047

Area 2 data size

1024

Implementation class

3 (Controller)

Node number

1

Token watchdog time

50

Allowable minimum
frame interval time0

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address

15 + Area 2 data size of
the EUT

Area 2 data size16

– 45 –JEM 1480:2023

Table – 18 Address duplication (continued)
Setting parameter(node) (continued)

Test equipment
Patter 3(The parameters
will vary
according to the
EUT class)

Classes 1, 3
and 4

Class 5

Implementation class

3 (Controller)

Node number

1

Token watchdog time

50

Allowable minimum
frame interval time0

Area 1 data top
address

1

Area 1 data size

4

Area 2 data top
address

128

Area 2 data size

64

Implementation class

3 (Controller)

Node number

1

Token watchdog time100

Allowable minimum
frame interval time0

Area 1 data top
address

1

Area 1 data size

256

JEM 1480:2023– 46 –

Table – 18 Address duplication (continued)
Setting parameter(node) (continued)

Setting parameter(Test data)

Test equipment
Pattern 3(The parameters
will vary
according to the
EUT class)

Solicitation frame

Class 5
(continued)
Classes 6
and 7

Area 2 data top
address

2048

Area 2 data size

1024

Implementation class

3 (Controller)

Node number

1

Token watchdog time

50

Allowable minimum
frame interval time0

Area 1 data top
address

1

Area 1 data size

4

Area 2 data top
address

16 + Area 2 data size of
the EUT

Area 2 data size

16

Node address ofsource side (SNA)

1

TCD

65017

Data size

16

Contents of data

Slave node number =16#8002(Flexible setting mode,
node number = 2)
Input data address =According to the number of
input points of the slave,
the EUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of theslave, the EUT
Input status address =16#8010(Area 2, address = 16)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 1

– 47 –JEM 1480:2023

Table 19 – Discard of abnormal frame
Test number

V2-013Major test group

New participation

Test group

Abnormal operation test

Test objects

Discard of abnormal frame (TCD)

Test procedure

Start the EUT, then start the test equipment.
In case the EUT is class 6, the test equipment transmits a solicitation frame.
The test equipment transmits an abnormal TCD frame (4200 - 200)ms after the EUTtransmits a trigger frame.
The test equipment transmits a trigger frame just after the above.
Test is executed with 2 patterns of abnormal TCD frames.

Evaluation criteria

Confirm followings at each abnormal TCD frames of patterns 1 and 2:
Confirm that the EUT transmits a participation request frame (T +/- 2) ms after the test
equipment transmits the trigger frame. Value T varies depending on the EUT class:* Classes 1, 2, 3 and 4: T = 1016
* Class 5: T = 400* Class 6: T = 996* Class 7: T = 8

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT (The
parameters willvary according
to the class)

Classes 1, 2
and 3

Class 4

Class 5

Node number

254

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

254

Token watchdog time(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time(0)

JEM 1480:2023– 48 –

Table 19 – Discard of abnormal frame (continued)
Setting parameter(node) (continued)

EUT (The
parameters willvary according
to the class)(continued)

Class 5
(continued)

Class 6

Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Class 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size

Test equipment

Setting parameter(test data)

Solicitation frame

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node address ofsource side (SNA)TCD
Data size
Contents of data

256
256
1024
1024
249
(50)
(0)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
2
(50)
(0)
Depending on the number of
input points of the slave, theEUT:* 0 point: 0* 1 point of more: 4
To be calculated from thenumber of input points of theslave, the EUT.
16
To be calculated from thenumbers of input and output
points of the slave, the EUT.
3 (Controller)
1
50
0
0
0
0
0
128
65017
16
Slave node number =16#80F9(Flexible setting mode, node
number = 249)
Input data address =16#0000(Area 1, address = 0)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT– 49 –JEM 1480:2023

Table 19 – Discard of abnormal frame (continued)
Setting parameter(test data)(continued)

Solicitation frame (continued)

Contents of data(continued)

Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 128

Pattern 1

Pattern 2

Destination port
number

55002

TCD

0

Destination port
number

55002

TCD

65000

Tables 20 – Token mode discordance
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V2-014
New participation
Abnormal operation test
Token mode discordanceStart the EUT, then start the test equipment.
In case the EUT is class 6, the test equipment transmits a solicitation frame.
The test equipment transmits a trigger frame with token mode = 0 (4200 - 200) ms after
the EUT transmits a trigger frame.
Confirm followings after the test equipment transmits the trigger frame.
The EUT does not transmit any frame to the network.
The EUT sets self node invalid communication detection flag.
R
R
R
R
R
R
R
EUT (TheClasses 1, 2
Node number
254
parameters will
and 3
Token watchdog time
(50)
vary according
Allowable minimum(0)
to the class)frame interval time
Area 1 data top
0
address
Area 1 data size
0
Area 2 data top
0
address
Area 2 data size
0

JEM 1480:2023– 50 –

Tables 20 – Token mode discordance (continued)
Setting parameter(node)

EUT (The
parameters willvary according
to the class)

Class 4

Class 5Class 6

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Class 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size

Test equipment

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

254
(100)
(0)
256
256
1024
1024
Optional
100
(100)
(0)
256
256
1024
1024
249
(50)
(0)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
2
(50)
(0)
According to the number of
input points of the slave, theEUT:* 0 point: 0* 1 point or more: 4
To be calculated from thenumber of input points of theslave, the EUT
16
To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
1
50
0
0

– 51 –JEM 1480:2023

Tables 20 – Token mode discordance (continued)
Setting parameter(node) (continued)

Test equipment (continued)

Setting parameter(test data)

Solicitation frame

Area 1 data size
Area 2 data top
address
Area 2 data size
Node address ofsource side (SNA)TCD
Data size
Contents of data

0
0
0
128
65017
16
Slave node number = 16#80F9(Flexible setting mode, node
number = 249)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 128

Frame with token mode = 0

Table 21 – Token mode discordance (participation request frame)
Test number

V2-015Major test group

New participation

Test group

Abnormal operation test

Test objects

Token mode discordance (participation request frame)

Test procedure

Evaluation criteria

Start the EUT, then start the test equipment.
In case the EUT is class 6, the test equipment transmits a solicitation frame.
The test equipment transmits a trigger frame (4200 + 200)ms after the EUT transmits
the one. (Because the EUT transmits the trigger frame first, the test equipment does
not transmit the one at normal timing.)
The test equipment transmits a participation request frame with token mode = 0.
Confirm followings after the test equipment transmits the participation request frame.
The EUT does not any frame to the network.
The EUT sets self node invalid communication detection flag.

JEM 1480:2023– 52 –

Table 21 – Token mode discordance (participation request frame) (continued)
Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT (The
parameters willvary according
to the class)

Classes 1,
2 and 3

Class 4

Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

1

Token watchdog time(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

IO allocation setting

Optional

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

– 53 –JEM 1480:2023

Table 21 – Token mode discordance (participation request frame) (continued)
Setting parameter(node) (continued)

Setting parameter(test data)

Test equipment

Solicitation frame

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node address ofsource side (SNA)TCD
Data size
Contents of data

3 (Controller)
254
50
0
0
0
0
0
128
65017
16
Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 128

Frame with token mode = 0

6.6.4

Participation to operating network

Test for participation to operating network are defined as follows:a)Normal operation in participation to operating network

Tables 22 and 23 show test tables for normal operation in participation to operating network.

JEM 1480:2023– 54 –

Table 22 – Self node participation to operating network (update of participation nodemanagement table)
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V2-016
Participation to operating network
Normal operation test
Self node participation to operating network (update of participation node management
table)Start the test equipment after the dummy nodes becomes in stable operation.
The test equipment starts to fetch frames from the network.
Start the EUT.
Confirm that the EUT sends a participation request frame.
Confirm that the EUT does not send trigger frames.
Confirm that the EUT responds to the first reception of the token frame directed to the
EUT.
Confirm that the EUT sets common memory setting of node #1 in the participation
node management table correctly.
Confirm that the EUT sends a token frame directed to node #130.
The EUT confirms node #1 participation status at its upper layer (ULS and LKS).
R
R
R
R
R
R
R
EUT (TheClasses 1, 3
Node number
85
parameters will
and 4
Token watchdog time
(50)
vary according
Allowable minimum(0)
to the class)frame interval time
Area 1 data top
0
address
Area 1 data size
4
Area 2 data top
0
address
Area 2 data size
64
IO allocation setting
Optional
Class 2
Node number
85
Token watchdog time
(50)
Allowable minimum(0)
frame interval time
Area 1 data top
0
address
Area 1 data size
0
Area 2 data top
0
address
Area 2 data size
0Class 5
Node number
100
Token watchdog time(100)
Allowable minimum(0)
frame interval time
Area 1 data top
256
address
Area 1 data size
256
Area 2 data top
1024
address
Area 2 data size1024

– 55 –JEM 1480:2023

Table 22 – Self node participation to operating network (update of participation nodemanagement table) (continued)
Setting parameter(node) (continued)

EUT (The
parameters willvary according
to the class)(continued)

Classes 6
and 7

Node number
Token watchdog time

2
(50)

Allowable minimum
frame interval time
Area 1 data top
address(0)

Area 1 data size

Area 2 data top
address
Area 2 data size

Test equipment(The parameters
will vary
according to the
EUT class)

Classes 1, 2,
3, 4 and 5

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)According to the number of
input points of the slave, theEUT:* 0 point: 0* 1 point or more: 4
To be calculated from thenumber of input points of theslave, the EUT
16
To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
1
(50)
(0)
4
4
64
64
4 (Flexible master)
1
50
0
According to the number of
output points of the slave,
the EUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points ofthe slave, the EUT
2048
1024
1

Slave node number =16#8002(Flexible setting mode, node
number = 2)
Input data address =According to the number of
input points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0004(Area 1, address = 4)
Input data size = To be
calculated from the numberof input points of the slave,
the EUTJEM 1480:2023– 56 –

Table 22 – Self node participation to operating network (update of participation nodemanagement table) (continued)
Setting parameter(node) (continued)

Test equipment(The parameters
will vary
according to the
EUT class)(continued)

Class 6
(continued)

IO allocation setting(slave setting)(continued)

Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number

Dummy nodes (30 nodes) (N = 0
through 29)

Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address

Area 2 data size

Setting parameter(test data)

NA

Output data address =According to the number of
output points of the slave,
the EUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of the slave,
the EUT
Input status address =16#8010(Area 2, address = 16)
Output status address =16#8800(Area 2, address = 2048)
3 (Controller)
1
50
0
0
4
0
16
3 (Controller)
130 + N (in case N = 29,
node number = 200)
50
0According to the EUT class:* Classes 1, 2, 3, 4 and 5:
8 + (4 x N)
* Class 6: 0
* Class 7: 256 + (4 x N)
According to the EUT class:* Classes 1, 2, 3, 4, 5, 7: 4
* Class 6: 0
According to the EUT class:* Classes 1, 2 and 3:
128 + (64 x N)
* Class 5: 128 + (16 x n)
* Classes 6 and 7:1024 + (16 x N)
According to the EUT class:* Classes 1, 2, 3 and 4: 64* Classes 5, 6 and 7: 16

– 57 –JEM 1480:2023

Table 23 – Other nodes participation to operating network
Test number

V2-017

Major test group

Participation to operating network

Test group

Normal operation test

Test objects

Other nodes participation to operating network

Test procedure

Start the dummy nodes. Start the EUT after they become in stable operation.
In case the EUT is class 6, a dummy node sends a solicitation frame.
Start to log frames in the network.
Start the test equipment.

Evaluation criteria

Confirm that the EUT changes direction of token frame from node #130 to node #N1.
N1 varies according to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: N1 = 85
* Class 5: N1 = 130
Confirm that the EUT does the direction change at the first token frame after aparticipation request frame sent by the test equipment.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

N

Class 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT (The
parameters willvary according
to the class)

Classes 1,
3 and 4

Class 2

Class 5

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

IO allocation setting(fore class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time(0)

JEM 1480:2023– 58 –

Table 23 – Other nodes participation to operating network (continued)
Setting parameter(node)

EUT (The
parameters willvary according
to the class)

Class 5Classes 6
and 7

Test equipment(The parameters
will vary
according to the
EUT class)

Classes 1,
2, 3 and 4

Class 5Classes 6
and 7

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

Implementation class

3 (Controller)

Node number

85

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

Implementation class

3 (Controller)

Node number

120

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

Implementation class

3 (Controller)

Node number

85

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address

400

Area 1 data size

4

Area 2 data top
address

2048

Area 2 data size64

– 59 –JEM 1480:2023

Table 23 – Other nodes participation to operating network (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Dummy nodes(30nodes)(N = 0 through29)

Solicitation
frame

Implementation class

3 (Controller)

Node number

130 + N (in case N = 29,
node number = 200)

Token watchdog time

50

Allowable minimum frame intervaltime

0Area 1 data top address

According to the EUT class:* Classes 1, 2, 3, 4 and 5:(4 x N)* Class 4: 0
* Class 7: 256 + (4 x N)

Area 1 data size

According to the EUT class:* Classes 1, 2, 3, 4, 5 and 7:
4* Class 6: 0

Area 2 data top address

According to the EUT class:* Classes 1, 2, 3 and 4:
128 + (64 x N)
* Class 5: 128 + (16 x N)
* Class 6 and 7:1024 + (16 x N)

Area 2 data size

According to the EUT class:* Classes 1, 2, 3 and 4: 64* Classes 5, 6 and 7: 16

Node number source side (SNA)

130

TCD

65017

Data size

16

Contents of data

Slave node number =16#8001(Flexible setting mode, node
number = 1)
Input data address =16#0000(Area 1, address = 0)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point: 16#0000(Area1, address = 0)
* 1point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of the slave,
the EUT
Input status address =16#8000
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 130

JEM 1480:2023b)– 60 –

Abnormal operation in participation to operating network

Tables 24 through 27 show test tables for abnormal operation in participation to operating
network.
Table 24 – Processing at common memory address overlapping
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

Setting parameter(node)

V2-018
Participation to operating network
Abnormal operation test
Processing at common memory address overlapping
Start the dummy nodes. Start the test equipment after the dummy nodes become instable operation.
Start the EUT after the test equipment becomes in stable operation.
In case the EUT is class 6, the test equipment sends a solicitation frame.
d) Execute tests with test data of patterns 1 through 3 in this order. (If the EUT is class
6 or 7 and number of input points of slave is 0 point, execute tests with test data ofpatterns 1 and 2 in this order.)Confirm followings at each test data of patterns 1 through 3.
The EUT set top address and size of the common memory to 0.
The EUT sends a participation request frame.
The EUT set address duplication detection flag.
R
N
R
R
R
R (The test data pattern applied varies according to the number of input points of theslave)* 0 point: Patterns 1 and 2* 1 point of more: Patterns 1 through 3
R (The test data pattern applied varies according to the number of input points of theslave)* 0 point: Patterns 1 and 2* 1 point of more: Patterns 1 through 3
EUT (TheClasses 1, 3
Node number
254
parameters will
and 4
Token watchdog(50)
vary according totime
the class)
Allowable minimum(0)
frame interval time
Area 1 data top
4
address
Area 1 data size
4
Area 2 data top
64
address
Area 2 data size
64
IO allocation setting Optional(In case of class 4)Class 5
Node number
100
Token watchdog
(100)
time
Allowable minimum(0)
frame interval time
Area 1 data top
256
address
Area 1 data size
256
Area 2 data top
1024
address
Area 2 data size1024

– 61 –JEM 1480:2023

Table 24 – Processing at common memory address overlapping (continued)
Setting parameter(node) (continued)

EUT (The
parameters willvary according to
the class)(continued)

Classes 6
and 7

Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size

Test equipment
Pattern 1(The parameters
will vary according
to the EUT class)

Classes 1, 3
and 4

Class 5Classes 6
and 7

Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

3
(50)
(0)
According to the number of
input points of the slave, theEUT:* 0 point: 0* 1 point or more: 8
To be calculated from thenumber of input points of theslave.
32
To be calculated from thenumbers of input and output
points of the slave.
3 (Controller)
1
(50)
(0)
4
4
64
64
3 (Controller)
1
(100)
(0)
256
256
1024
1024
3 (Controller)
1
(50)
(0)
According to the number of
input points of the slave:* 0 point:
To be calculated from thenumber of input points of theslave, the EUT
32
To be calculated from thenumber of input and output
points of the slave, the EUTJEM 1480:2023– 62 –

Table 24 – Processing at common memory address overlapping (continued)
Setting parameter(node) (continued)

Test equipment
Pattern 2(The parameters
will vary according
to the EUT class)

Classes 1, 3
and 4

Class 5Classes 6
and 7

Test equipment
Pattern 3(The parameters
will vary according
to the EUT class)

Classes 1, 3
and 4

Class 5

Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address

3 (Controller)
1
(50)
(0)
0
4
127
64
3 (Controller)
1
(100)
(0)
0
256
2047
1024
3 (Controller)
1
(50)
(0)
0
8
31 + EUT Area 2 data size
To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
1
(50)
(0)
1
4
128
64
3 (Controller)
1
(100)
(0)
1

– 63 –JEM 1480:2023

Table 24 – Processing at common memory address overlapping (continued)
Setting parameter(node)

Test equipment
Pattern 3(The parameters
will vary according
to the EUT class)(continued)

Dummy node

Setting parameter(test data)

Solicitation frame

Class 5
(continued)

Classes 6
and 7

Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number ofsource side (SNA)TCD
Data size
Contents of data

256
2048
1024
3 (Controller)
1
(50)
(0)
1
8
32 + EUT Area 2 data size
16
3 (Controller)
2
(50)
(0)
0
0
0
0
1
65017
16
Slave node number =16#8001(Flexible setting mode, node
number = 1)
Input data address =According to the number of
input points of the slave:, theEUT* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0008(Area 1, address = 8)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point: 16#0000(Area1, address = 0)
* 1point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of the slave,
the EUTJEM 1480:2023– 64 –

Table 24 – Processing at common memory address overlapping (continued)
Setting parameter(test data)(continued)

Solicitation frame (continued)

Contents of data(continued)

Input status address =16#8020(Area 2, address = 32)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 1

Table 25 – Node number duplication
Test number

V2-019Major test group

Participation to operating network

Test group

Abnormal operation test

Test objects

Node number duplication

Test procedure

Start the dummy node. Start the test equipment after the dummy node becomes instable operation.
Start the EUT after the test equipment becomes in stable operation.
In case the EUT is class 6, the test equipment sends a solicitation frame.

Evaluation criteria

Confirm that the EUT sends a token frame.
Confirm that the EUT does not send any participation request frame.
Confirm that the EUT set node number duplication flag.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT (The
parameters willvary according
to the class)

Classes 1, 2
and 3

Class 4

Class 5

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

1

Token watchdog time(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time(0)– 65 –JEM 1480:2023

Table 25 – Node number duplication (continued)
Setting parameter(node) (continued)

EUT (The
parameters willvary according
to the class)(continued)

Class 5
(continued)

Classes 6
and 7

Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Test equipment(The parameters
will vary
according to the
EUT class)

Classes 1, 2,
3, 4, 6 and 7

Class 5

Dummy node

Setting parameter(test data)

Solicitation frame

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number sourceside (SNA)
TCD

256
256
1024
1024
1
(50)
(0)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
1
(50)
(0)
0
0
0
0
3 (Controller)
100
(50)
(0)
0
0
0
0
3 (Controller)
2
50
0
0
0
0
0
2
65017

JEM 1480:2023– 66 –

Table 25 – Node number duplication (continued)
Setting parameter(test data)(continued)

Solicitation frame (continued)

Data size
Contents of data

16
Slave node number =16#8001(Flexible setting mode, node
number = 1)
Input data address =16#0000(Area 1, address = 0)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point: 16#0000(Area1, address = 0)
* 1point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of the slave,
the EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 2

Table 26 – Token mode discordance (self node participation)
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V2-020Participation to operating network
Abnormal operation test
Token mode discordance (self node participation)
Start the dummy nodes. Start the test equipment after the dummy nodes become instable operation.. Set token mode of the dummy node and the test equipment to 0.
Start the EUT after the test equipment becomes in stable operation.
Confirm that the Test equipment sends a token frame.
Confirm that the EUT does not send any participation request frame.
Confirm that the EUT set self node invalid communication detection flag.
R
R
R
R
R
R
R
EUT (TheClasses 1, 2
Node number
85
parameters will
and 3
Token watchdog time
(50)
vary according
Allowable minimum(0)
to the class)frame interval time– 67 –JEM 1480:2023

Table 26 – Token mode discordance (self node participation) (continued)
Setting parameter(node) (continued)

EUT (The
parameters willvary according
to the class)(continued)

Classes 1, 2
and 3
(continued)

Class 4

Class 5Classes 6
and 7

Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

0

Node number
Token watchdog time

3
(50)

Allowable minimum
frame interval time
Area 1 data top
address(0)

Area 1 data size

Area 2 data top
address
Area 2 data size

Test equipment(The parameters
will vary
according to the
EUT class)

Classes 1, 2,
3, 4, 5 and 7

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number

0
0
0
85
(100)
(0)
256
256
1024
1024
Optional
100
(100)
(0)
256
256
1024
1024

According to the number of
input points of the slave, theEUT:* 0 point: 0* 1 point or more: 8
To be calculated from thenumber of input points of theslave, the EUT
32
To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
1
(50)
(0)
0
0
0
0
4 (Flexible master)
1

JEM 1480:2023– 68 –

Table 26 – Token mode discordance (self node participation) (continued)
Setting parameter(node) (continued)

EUT (The
parameters willvary according
to the class)(continued)

Class 6
(continued)

Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

Token mode
Dummy node

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Token mode

(50)
(0)
According to the number of
output points of the slave,
the EUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points ofthe slave, the EUT
1024
1024
1

Slave node number =16#8003(Flexible setting mode, node
number = 3)
Input data address =According to the number of
input points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0008(Area 1, address = 8)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of the slave,
the EUT
Input status address =16#8020(Area 2, address = 32)
Output status address =16#8400(Area 2, address = 1024)0
3 (Controller)
2
(50)
(0)
0
0
0
0
0

– 69 –JEM 1480:2023

Table 26 – Token mode discordance (self node participation) (continued)
Setting parameter(test data)

NA

Table 27 Token mode discordance (other node participation)
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V2-021
Participation to operating network
Abnormal operation test
Token mode discordance (other node participation)
Start the dummy node. Start the EUT after the dummy nodes become in stable
operation..
In case the EUT is class 6, a dummy node sends a solicitation frame.
Start the test equipment with token mode = 0.
Confirm that the EUT does not disengage.
Confirm that the test equipment does not participate to the network.
Checking the EUT participation node management table for the test equipment,
confirm that invalid communication detection flag is "1".
R
R
R
R
R
R
R
EUT (TheClasses 1, 3
Node number
1
parameters will
and 4
Token watchdog time
(50)
vary according
Allowable minimum(0)
to the class)frame interval time
Area 1 data top
4
address
Area 1 data size
4
Area 2 data top
64
address
Area 2 data size
64
IO allocation setting
Optional(fore class 4)Class 2
Node number
1
Token watchdog time
(50)
Allowable minimum(0)
frame interval time
Area 1 data top
0
address
Area 1 data size
0
Area 2 data top
0
address
Area 2 data size
0Class 5
Node number
100
Token watchdog time(100)

JEM 1480:2023– 70 –

Table 27 – Token mode discordance (other node participation) (continued)
Setting parameter(node) (continued)

EUT (The
parameters willvary according
to the class)(continued)

Class 5
(continued)

Classes 6
and 7

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Test equipment(The
parameters willvary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Classes 6
and 7

Dummy nodes (30 nodes)(N = 0 through 29)

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Token mode
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time

(0)
256
256
1024
1024
1
(50)
(0)
0
To be calculated from thenumber of input points of theslave, the EUT.
0
To be calculated from thenumbers of input and output
points of the slave, the EUT.
3 (Controller)
85
(50)
(0)
0
0
0
64
3 (Controller)
85
(50)
(0)
256
4
2048
64
0
3 (Controller)
130 + N (in case N = 29,
node number = 200)50
0

– 71 –JEM 1480:2023

Table 27 – Token mode discordance (other node participation) (continued)
Setting parameter(node)(continued)

Dummy nodes (30 nodes)(N = 0 through 29)(continued)

Area 1 data top
address

Area 1 data size

Area 2 data top
address

Area 2 data size

Setting parameter(test data)

Solicitation frame

Token mode
Node number ofsource side (SNA)TCD
Data size
Contents of data

According to the EUT class:* Classes 1, 2, 3, 4 and 5: 8
+ (4 x N)* Class 4: 0
* Class 7: 260 + (4 x N)
According to the EUT class:* Classes 1, 2, 3, 4, 5 and 7:
4* Class 6: 0
According to the EUT class:* Class 1, 2, 3 and 4: 128 +(64 x N)* Class 5: 128 + (16 x N)
* Classes 6 and 7: 1024 +(16 x N)
According to the EUT class:* Classes 1, 2, 3 and 4: 64* Classes 5, 6 and 7: 16
1
130
65017
16
Slave node number =16#8001(Flexible setting mode, node
number = 1)
Input data address =16#0000(Area 1, address = 0)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point: 16#0000(Area1, address = 0)
* 1point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of the slave,
the EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 130

JEM 1480:2023

6.6.5– 72 –

Basic function

Tables 28 through 35 show test tables for basic function.
Table 28 – Refresh cycle measurement time, allowable refresh cycle time
Test number

V2-022Major test group

Basic function

Test group

Basic operation test

Test objects

Refresh cycle measurement time, allowable refresh cycle time

Test procedure

Start the dummy nodes. Start the EUT after the dummy nodes become in stable
operation.
In case the EUT is class 6, the dummy node sends a solicitation frame.
Start to log frames on the network
Start the test equipment

Evaluation criteria

Checking refresh cycle measurement time of the EUT, confirm the value is the same as
the refresh cycle time in the logging of frames on the network.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT (The
parameters vary
according to theclass)Classes 1, 3
and 4

Class 2

Class 5

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

IO allocation setting (forclass 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size1024

– 73 –JEM 1480:2023

Table 28 – Refresh cycle measurement time, allowable refresh cycle time (continued)
Setting parameter(node) (continued)

EUT (The
parameters vary
according to theclass)(continued)

Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Test equipment(The parameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Classes 6
and 7

Dummy nodes (30 nodes)(N = 0 through 29)

Implementation class

To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
(50)
(0)

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number

3 (Controller)
85
(50)
(0)

Area 1 data size

Dummy nodes (30 nodes)(N = 0 through 29) (continued)

0

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Setting parameter(node) (continued)

1
(50)
(0)

Area 2 data top
address

Area 2 data size

0
4
0
64

256
4
2048
64
3 (Controller)
130 + N (in case N = 29,
node number = 200)
50
0According to the EUT class:* Classes 1, 2, 3, 4 and 5: 8
+ (4 x N)* Class 6: 0
* Class 7: 260 + (4 x N)
According to the EUT class:* Classes 1, 2, 3, 4, 5 and 7:
4* Class 6: 0
According to the EUT class:* Classes 1, 2, 3 and 4: 128+ (64 x N)
* Class 5: 128 + (16 x N)
* Classes 6 and 7: 1024 +(16 x N)
According to the EUT class:* Classes 1, 2, 3 and 4: 64* Classes 5, 6 and 7: 16

JEM 1480:2023– 74 –

Table 28 – Refresh cycle measurement time, allowable refresh cycle time (continued)
Setting parameter(test data)

Solicitation frame

Node address ofsource side (SNA)

130

TCD

65017

Data size

16

Contents of data

Slave node number =16#8001(Flexible setting mode, node
number = 1)
Input data address =16#0000(Area 1, address = 0)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point : 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of the slave,
the EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 130

Table 29 Disengaging/rejoining of network
Test number

V2-023Major test group

Basic function

Test group

Basic operation test

Test objects

Disengaging/re-joining of network

Test procedure

Start the dummy nodes. Start the EUT after the dummy nodes become in stable
operation.
Start to log frames on the network.
Start the test equipment.
The test equipment stops sending token frames to the EUT.
The test equipment restart to send token frames to the EUT when the EUT sends aparticipation request frame.

– 75 –JEM 1480:2023

Table 29 Disengaging/rejoining of network (continued)
Evaluation criteria

Test
necessity
identified
by theEUT class

Confirm that the EUT disengages from the network in case that it cannot receive token
frames to the self node three times consecutively.
Confirm that the EUT rejoins the network by sending the participation request frame.

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT (The
parameters vary
according to theclass)Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number

85

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting (forclass 4)

Optional

Node number

85

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

2

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address

According to the number of
input points of the slave,
the EUT:* 0 point: 0* 1 point or more: 4

JEM 1480:2023– 76 –

Table 29 – Disengaging/rejoining of network (continued)
Setting parameter(node) (continued)

EUT (The
parameters vary
according to theclass)(continued)

Test equipment(The parameters
vary according
to the EUT
class)Classes 6
and 7(continued)

Area 1 data size

Area 2 data top
address
Area 2 data size

Classes 1, 2,
3, 4 and 5

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

To be calculated from thenumber of input points ofthe slave, the EUT
16
To be calculated from thenumbers of input andoutput points of the slave,
the EUT
3 (Controller)
1
(50)
(0)
4
4
64
64
4 (Flexible master)
1
(50)
(0)
256
To be calculated from thenumber of output points ofthe slave, the EUT
2048
1024
1

Slave node number =16#8002(Flexible setting mode,
node number = 2)
Input data address =16#0004(Area 1, address = 4)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point : 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of theslave, the EUT
Input status address =16#8010(Area 2, address = 16)

– 77 –JEM 1480:2023

Table 29 – Disengaging/rejoining of network (continued)
Setting parameter(node) (continued)
Setting parameter(node) (continued)

Test equipment(The parameters
vary according
to the EUT
class)(continued)

Class 6

IO allocation setting(slave setting)

Output status address =16#8800(Area 2, address = 2048)

Class 7

Implementation class

3 (Controller)

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address

2048

Area 2 data size

64

Implementation class

3 (Controller)

Node number

130 + N (in case N = 29,
node number = 200)

Token watchdog time

50

Allowable minimum
frame interval time0

Area 1 data top
address

According to the EUT
class:* Classes 1, 2, 3, 4 and 5:
8 + (4 x N)
* Class 6: 0
* Class 7: 256 + (4 x N)

Area 1 data size

According to the EUT
class:* Classes 1, 2, 3, 4, 5 and
7: 4* Class 6: 0

Area 2 data top
address

According to the EUT
class:* Classes 1, 2, 3 and 4:
128 + (64 x N)
* Class 5: 128 + (16 x N)
* Classes 6 and 7: 1024 +(16 x N)

Area 2 data size

According to the EUT
class:* Classes 1, 2, 3 and 4: 64* Classes 5, 6 and 7: 16

Dummy nodes (30 nodes)(N = 0 through 29)

Table 30 – Reissue of Token
Test number

V2-024

Major test group

Basic function

Test group

Basic operation test

Test objects

Reissue of token

Test procedure

Start the dummy nodes. Start the EUT after the dummy nodes become in stable
operation.
In case the EUT is class 6, the dummy node sends a solicitation frame.
Start to log frames on the network.
Start the test equipment.
Disengage the test equipment from the network by not transmitting token frames.

JEM 1480:2023– 78 –

Table 30 – Reissue of Token (continued)
Evaluation criteria

Test
necessity
identified
by theEUT class

Confirm that the EUT reissues a token frame after token watchdog time the test
equipment sets expires.
Confirm that the re-issuance of the token frame by the EUT occurs after the time
passes by [(token watchdog time of the test equipment) - 1] ms.
Confirm that the re-issuance of the token frame by the EUT occurs before the time
passes by [(token watchdog time of the test equipment) +(token watchdog time of theEUT)].
Confirm the EUT updates its participation node management table by recognizing
disengagement of the test equipment.

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT (The
parameters vary
according to theclass)Classes 1, 3
and 4

Class 2

Class 5

Node number

85

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting (forclass 4)

Optional

Node number

85

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size1024

– 79 –JEM 1480:2023

Table 30 Reissue of Token (continued)
Setting parameter(node) (continued)

EUT(The parameters
vary according
to the class)(continued)

Test equipment(The parameters
vary according
to the EUT
class)Classes 6
and 7

Classes 1, 2,
3, 4 and 5

Classes 6
and 7

Dummy nodes (30 nodes)(N = 0 through 29)

Node number

2

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address

According to the number of
input points of the slave,
the EUT:* 0 point: 0* 1 point or more: 4

Area 1 data size

To be calculated from thenumber of input points ofthe slave, the EUT

Area 2 data top
address

16

Area 2 data size

To be calculated from thenumbers of input andoutput points of the slave,
the EUT

Implementation class

3 (Controller)

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

Implementation class

3 (Controller)

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address

2048

Area 2 data size

64

Implementation class

3 (Controller)

Node number

130 + N (in case N = 29,
node number = 200)

Token watchdog time

50

Allowable minimum
frame interval time0

Area 1 data top
address

According to the EUT
class:* Classes 1, 2, 3, 4 and 5:
8 + (4 x N)
* Class 6 and 7: 256 + (4 xN)Area 1 data size

4

JEM 1480:2023– 80 –

Table 30 – Reissue of Token (continued)
Setting parameter(node) (continued)

Setting parameter(test data)

Dummy nodes (30 nodes)(N = 0 through 29) (continued)

Solicitation frame

Area 2 data top
address

According to the EUT
class:* Classes 1, 2, 3 and 4:
128 + (64 x N)
* Class 5: 128 + (16 x N)
* Classes 6 and 7: 1024 +(16 x N)

Area 2 data size

According to the EUT
class:* Classes 1, 2, 3 and 4: 64* Classes 5, 6 and 7: 16

Node address ofsource side
(SNA)

130

TCD

65017

Data size

16

Contents of data

Slave node number =16#8002(Flexible setting mode,
node number = 2)
Input data address =According to the number of
input points of the slave,
the EUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0004(Area 1, address = 4)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point : 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of theslave, the EUT
Input status address =16#8010(Area 2, address = 16)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 130

– 81 –JEM 1480:2023

Table 31 – Processing of node disengagement, participation/disengagement flag of theself node
Test number

V2-025Major test group

Basic function

Test group

Basic operation test

Test objects

Processing of node disengagement, participation/disengagement flag of the self node

Test procedure

Start the dummy nodes. Start the EUT after the dummy nodes become in stable
operation.
In case the EUT is class 6, the dummy node sends a solicitation frame.
Start to log frames on the network
Start the test equipment
The test equipment disengage from the network (it stops sending token frames).
Execute tests with settings of patterns 1 and 2, respectively.

Evaluation
criteria

Pattern1

Confirm that the EUT changes token rotation order by updating its participation nodemanagement table at the fourth cycle of token frame rotation.

Pattern2

Test
necessity
identified
by theEUT class

Checking self node management table and participation node management table of
the EUT before the disengagement of the test equipment, confirm that the EUT
recognizes joining of the test equipment (node #170).
Checking self node management table and participation node management table of
the EUT after the disengagement of the test equipment, confirm that the EUT
recognizes disengaging of the test equipment (node #170).

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT (The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Node number

85

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

85

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

JEM 1480:2023– 82 –

Table 31 – Processing of node disengagement, participation/disengagement flag of theself node (continued)
Setting parameter(node) (continued)

EUT (The
parameters
vary according
to the class)(continued)

Class 5Classes 6 and
7Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment
Pattern 1(Theparameters
vary according
to the EUT
class)Classes 1, 2, 3
and 4

Class 5Classes 6 and
7Implementation class

100
(100)
(0)
256
256
1024
1024
1
(50)
(0)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

96
100
0

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

3 (Controller)
120
100
0

4
4
64
64

4
4
64
64
3 (Controller)
96
100
0
256
4
2048
64

– 83 –JEM 1480:2023

Table 31 – Processing of node disengagement, participation/disengagement flag of theself node (continued)
Setting parameter(node) (continued)

Test
equipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Classes 6 and7Dummy nodes (30 nodes)(N = 0 through 29)

Implementation class

3 (Controller)

Node number

170

Token watchdog time

50

Allowable minimum
frame interval time0

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

Implementation class

3 (Controller)

Node number

170

Token watchdog time

50

Allowable minimum
frame interval time0

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

2048

Area 2 data size

64

Implementation class

3 (Controller)

Node number

130 + N (in case N = 29,
node number = 200)

Token watchdog time

50

Allowable minimum
frame interval time0

Area 1 data top
address

According to the EUT class:* Classes 1, 2, 3, 4 and 5: 8
+ (4 x N)* Class 6 and 7: 260 + (4 xN)Area 1 data size

4

Area 2 data top
address

According to the EUT class:* Classes 1, 2, 3 and 4: 128+ (64 x N)
* class 5: 128 + (16 x N)
* Class 6 and 7: 1024 + (16x N)

Area 2 data size

According to the EUT class:* Classes 1, 2, 3 and 4: 64* Class 5, 6 and 7: 16

JEM 1480:2023– 84 –

Table 31 – Processing of node disengagement, participation/disengagement flag of theself node (continued)
Setting parameter(test data)

Solicitation frame

Node address ofsource side
(SNA)

130

TCD

65017

Data size

16

Contents of data

Slave node number =16#8001(Flexible setting mode, node
number = 1)
Input data address =16#0000(Area 1, address = 0)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point : 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of the slave,
the EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 130

– 85 –JEM 1480:2023

Table – 32 Token multiplication
Test number

V2-026

Major test group

Basic function

Test group

Basic operation test

Test objects

Token multiplication

Test procedure

Start the dummy nodes. Start the EUT after the dummy nodes become in stable
operation.
In case the EUT is class 6, the dummy node sends a solicitation frame.
Start to log frames on the network
Start the test equipment
The test equipment transmits token multiplication frames (it transmits an abnormal
frame at each time when transmitting a token frame to the EUT, consecutively).
Execute tests by settings with pattern 1 and 2, respectively.

Evaluation criteria

Pattern 1: Confirm that the EUT does not send token frames.
Pattern 2: Confirm that the EUT sends token frames.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT (The
parameters vary
according to theclass)Classes 1, 3
and 4

Class 2

Class 5

Node number

85

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting (forclass 4)

Optional

Node number

85

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time(0)

Area 1 data top
address256

JEM 1480:2023– 86 –

Table 32 – Token multiplication (continued)
Setting parameter(node) (continued)

EUT (The
parameters vary
according to theclass)(continued)

Class 5
(continued)

Classes 6
and 7

Test equipment(The parameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Classes 6
and 7

Dummy nodes (30 nodes)(N = 0 through 29)

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

3

Token watchdog time

(50)

Allowable minimum
frame interval time(0)

Area 1 data top
address

According to the number of
input points of the slave,
the EUT:* 0 point: 0* 1 point or more: 8

Area 1 data size

To be calculated from thenumber of input points ofthe slave, the EUT

Area 2 data top
address

32

Area 2 data size

To be calculated from thenumbers of input andoutput points of the slave,
the EUT

Implementation class

3 (Controller)

Node number

2

Token watchdog time

50

Allowable minimum
frame interval time

20

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

Implementation class

3 (Controller)

Node number

2

Token watchdog time

50

Allowable minimum
frame interval time

20

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

2048

Area 2 data size

64

Implementation class

3 (Controller)

Node number

130 + N (in case N = 29,
node number = 200)

Token watchdog time

50

Allowable minimum
frame interval time0

– 87 –JEM 1480:2023

Table 32 – Token multiplication (continued)
Setting parameter(node) (continued)

Setting parameter(test data)

Dummy nodes (30 nodes)(N = 0 through 29) (continued)

Solicitation frame

Area 1 data top
address

According to the EUT
class:* Classes 1, 2, 3, 4 and 5:
8 + (4 x N)
Classes 6 and 7: 256 + (4x N)

Area 1 data size

4

Area 2 data top
address

According to the EUT
class:* Classes 1, 2, 3 and 4:
128 + (64 x N)
* Class 5: 128 + (16 x N)
* Classes 6 and 7: 1024 +(16 x N)

Area 2 data size

According to the EUT
class:* Classes 1, 2, 3 and 4: 64* Classes 5, 6 and 7: 16

Node address ofsource side
(SNA)

130

TCD

65017

Data size

16

Contents of data

Slave node number =16#8003(Flexible setting mode,
node number = 3)
Input data address =According to the number of
input points of the slave,
the EUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0008(Area 1, address = 8)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point : 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of theslave, the EUT
Input status address =16#8020(Area 2, address = 32)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 130

Test equipment pattern 1

Abnormal token frame

SA = 2, DA = 1

Test equipment pattern 2

Abnormal token frame

SA = 2, DA = 130

JEM 1480:2023– 88 –

Table 33 – Token watchdog time error, token watchdog time error flag
Test number

V2-027

Major test group

Basic function

Test group

Node status test

Test objects

Token watchdog time error, token watchdog time error flag

Test procedure

Start the EUT, then start the test equipment.

Evaluation criteria
Test
necessity
identified
by theEUT class

Confirm that the EUT does not send tokens onto the network.
Confirm that the EUT sets token watchdog time error flag.

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT (The
parameters vary
according to theclass)Classes 1, 3
and 4

Class 2

Class 5

Node number

85

Token watchdog time2

Allowable minimum
frame interval time

(20)

Area 1 data top
address0

Area 1 data size

128

Area 2 data top
address0

Area 2 data size

2048

IO allocation setting (forclass 4)

Optional

Node number

85

Token watchdog time2

Allowable minimum
frame interval time

20

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time2

Allowable minimum
frame interval time(0)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size1024

– 89 –JEM 1480:2023

Table 33 – Token watchdog time error, token watchdog time error flag (continued)
Setting parameter(node) (continued)

EUT (The
parameters vary
according to theclass)(continued)

Classes 6
and 7

Node number

2

Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

2
20

Area 1 data size

Area 2 data top
address
Area 2 data size

Test equipment(The parameters
vary according
to the EUT
class)Classes 1, 2,
3, 4, 5 and 7

Class 6

Implementation classAccording to the number of
input points of the slave,
the EUT:* 0 point: 0* 1 point or more: 4
To be calculated from thenumber of input points ofthe slave, the EUT
16
To be calculated from thenumbers of input andoutput points of the slave,
the EUT
3 (Controller)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
50
20

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

4 (Flexible master)
1
50
20

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

0
0
0
0

According to the number of
output points of the slave,
the EUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points ofthe slave, the EUT
1024
1024
1

Slave node number =16#8002(Flexible setting mode,
node number = 2)
Input data address =According to the number of
input points of the slave,
the EUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0004( Area 1, address = 4)

JEM 1480:2023– 90 –

Table 33 – Token watchdog time error, token watchdog time error flag (continued)
Setting parameter(node) (continued)

Test equipment(The parameters
vary according
to the EUT
class)(continued)

Setting parameter(test data)

NA

Class 6
(continued)

IO allocation setting(slave setting)(continued)

Input data size = To be
calculated from the numberof input points of the slave,
the EUT
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100( Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of theslave, the EUT
Input status address =16#8010(Area 2, address = 16)
Output status address =16#8400(Area 2, address = 1024)

– 91 –JEM 1480:2023

Table 34 – Allowable minimum frame interval time
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V2-028
Basic function
Node status test
Allowable minimum frame interval time
Start the dummy nodes. Start the EUT after the dummy nodes become in stable
operation.
In case the EUT is class 6, the dummy node sends a solicitation frame.
Start the test equipment. Confirm allowable minimum frame interval time and token
response time of the EUT.
Execute tests with settings of patterns 1 and 2, respectively.
Confirm that the EUT sets value of its allowable minimum frame interval time to 50 atpattern 2.
Confirm that the frame response time is more than 4ms and that the response time atpattern 2 is longer than that at pattern 1.
R
R
R
R
R
R
R
EUT (TheClasses 1, 3
Node number
1
parameters vary and 4
Token watchdog time50
according to the
Allowable minimum
0 (or minimum value
class)
frame interval time
available)
Area 1 data top
0
address
Area 1 data size
4
Area 2 data top
0
address

JEM 1480:2023– 92 –

Table 34 – Allowable minimum frame interval time (continued)
Setting parameter(node) (continued)

EUT (The
parameters vary
according to theclass)(continued)

Class 1, 3
and 4
(continued)
Class 2

Class 5Classes 6
and 7

Area 2 data size

64

IO allocation setting (forclass 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Optional

Area 2 data top
address
Area 2 data size

Test equipment
Pattern 1(Theparameters vary
according to the
EUT class)

Classes 1, 2,
3, 4 and 5

Classes 6
and 7

Implementation class1
50
0 (or minimum value
available)
0
0
0
0
100
(100)
0 (or minimum value
available)
256
256
1024
1024
1
50
0 (or minimum value
available)0
To be calculated from thenumber of input points ofthe slave, the EUT0To be calculated from thenumbers of input andoutput points of the slave,
the EUT
3 (Controller)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

85
50
0

Implementation class
Node number
Token watchdog time3 (Controller)
85
50

4
4
64
64

– 93 –JEM 1480:2023

Table 34 – Allowable minimum frame interval time (continued)
Setting parameter(node)(continued)

Test equipment
Pattern 1(Theparameters vary
according to the
EUT class)(continued)

Classes 6
and 7

Test equipment
Pattern 2(Theparameters vary
according to the
EUT class)

Classes 1, 2,
3, 4 and 5

Classes 6
and 7

Dummy nodes (30 nodes)(N = 0 through 29)

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size
Area 2 data top
address

Area 2 data size

0
256
4
2048
64
3 (Controller)
85
50
50
4
4
64
64
3 (Controller)
85
50
50
256
4
2048
64
3 (Controller)
130 + N (in case N = 29,
node number = 200)
50
0According to the EUT
class:* Classes 1, 2, 3, 4 and 5:
8 + (4 x N)
* Classes 6 and 7: 260 +(4 x N)
4
According to the EUT
class:* Classes 1, 2, 3 and 4:
128 + (64 x N)
* Class 5: 128 + (16 x N)
* Classes 6 and 7: 1024 +(16 x N)
According to the EUT
class:* Classes 1, 2, 3 and 4: 64* Classes 5, 6 and 7: 16

JEM 1480:2023– 94 –

Table 34 – Allowable minimum frame interval time (continued)
Setting parameter(test data)

Solicitation frame

Node address ofsource side
(SNA)
TCD
Data size
Contents of data

130

65017
16
Slave node number =16#0001(Flexible setting mode,
node address = 1)
Input data address =16#0000(Area 1, address = 0)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of theslave, the EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 130

Table 35 – Updating participation node management table
Test number

V2-029Major test group
Test group
Test objects
Test procedure

Basic function
Node status test
Updating participation node management table
Start the EUT, then start the test equipment.
Set both values of LKS and ULS in the token frame that the test equipment transmits
16#00.

Evaluation criteria

Confirm that participation node management table for the test equipment at the EUT are
as follows:
LKS:
Bit 2, 3 (reserved) = 0
Bit 4 (upper layer operation signal error) = 0
Bit 5 (common memory data validity) = 1
Bit 6 (common memory setting completion) = 1
Bid 7 (address overlapping detection) = 0
ULS:
Bit 12 (reserved) = 0
Bit 13 (WARNING) = 0
Bit 14 (ALARM) = 0
Bit 15 (RUN/STOP) = 1

– 95 –JEM 1480:2023

Table 35 – Updating participation node management table (continued)
Test
necessity
identified
by the
EUT
class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

R
R
R
R
R
R
R
EUT
(The parameters
vary according
to the class)

Classes 1,
2 and 3

Classes 4
and 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
IO allocation setting (forclass 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size

Test equipment(The parameters
vary according
to the EUT
class)Classes 1,
2, 3, 4 and
5Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

128
(50)
(0)
0
0
0
0
100
(100)
(0)
256
256
1024
1024
Optional
2(50)(0)
According to the number of
input points of the slave,
the EUT:* 0 point: 0* 1 point or more: 4
To be calculated from thenumber of input points ofthe slave, the EUT
16
To be calculated from thenumbers of input andoutput points of the slave,
the EUT
3 (Controller)
1
50
0
64
32
16
128

JEM 1480:2023– 96 –

Table 35 – Updating participation node management table (continued)
Setting parameter(node)(continued)

Test equipment(The parameters
vary according
to the EUT
class)(continued)

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

4 (Flexible master)
1
50
0
According to the number of
output points of the slave,
the EUT:* 0 point : 0* 1 point or more: 256
To be calculated from thenumber of output points ofthe slave, the EUT
1024
128
1

Slave node number =16#8002(Flexible setting mode, node
number = 2)
Input data address =According to the number of
input points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0004(Area 1, address = 4)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point : 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of the slave,
the EUT
Input status address =16#8010(Area2, address = 16)
Output status address =16#8400(Area 2, address = 1024)
3 (Controller)
1
50
0
256
32
1024
128

– 97 –JEM 1480:2023

Table 35 – Updating participation node management table (continued)
Setting parameter(test data)

Final cyclic frame
Abnormal token frame

6.6.6

FA link status
Upper layer status
FA link status
Upper layer status

16#60
16#8000
16#00
16#0000

Cyclic Transmission

Test for cyclic transmission is as follows.
a)Normal operation of cyclic transmission

Tables 36 and 37 show test tables for the normal operation of cyclic transmission.
Table 36 – Frame format
Test number
Major test group
Test group
Test objects
Test procedure
Evaluation criteria
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V2-030Cyclic transmission
Normal operation test
Flame format
Start the EUT, then start the test equipment.
Execute tests with settings maximum three patterns according to class of the EUT.
Confirm that data size and contents of the header part are correct.
Refer setting parameter (test data) for the contents of the header.
R (patterns 1 through 3)
R (pattern 1)
R (patterns 1 through 3)
R (patterns 2 and 3)
R (pattern 2)
R (pattern 4)
R (pattern 4)
Pattern 1 (no common memory)
EUT
Node number
85
Token watchdog time100
Allowable minimum
10
frame interval time
Area 1 data top address
0
Area 1 data size
0
Area 1 data pattern
NA
Area 2 data top address
0
Area 2 data size
0
Area 2 data pattern
NA
Node name"TargetNode"
Test equipment
Implementation class
3 (Controller)
Node number
1
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top address
0JEM 1480:2023– 98 –

Table 36 – Frame format (continued)
Setting parameter(node)(continued)

Test equipment(continued)

Area 1 data size

0

Area 1 data pattern

NA

Area 2 data top address

0

Area 2 data size

0

Area 2 data pattern

NA

Node name"TargetNode"

Pattern 2 (common memory size = single frame)
EUT(Theparameters
vary according
to the class)

Classes 1, 3
and 4

Class 5

Test equipment

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top address

4

Area 1 data size

4

Area 1 data pattern

Optional

Area 2 data top address

64

Area 2 data size

64

Area 2 data pattern

Optional

Node name"TargetNode"IO allocation setting (forclass 4)

Optional

Node number

100

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top address

256

Area 1 data size

40

Area 1 data pattern

Optional

Area 2 data top address

1024

Area 2 data size

160

Area 2 data pattern

Optional

Node name"TargetNode"

Implementation class

3 (Controller)

Node number

1

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top address

0

Area 1 data size

0

Area 1 data pattern

NA

Area 2 data top address

0

Area 2 data size

0

Area 2 data pattern

NA

Node name"Tester"

– 99 –JEM 1480:2023

Table 36 – Frame format (continued)
Setting parameter(node)(continued)

Pattern 3 (common memory size = single frame maximum)
EUT

Test equipment

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top address

4

Area 1 data size

4

Area 1 data pattern

Optional

Area 2 data top address

64

Area 2 data size

508

Area 2 data pattern

Optional

Node name"TargetNode"IO allocation setting (forclass 4)

Optional

Implementation class

3 (Controller)

Node number

1

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top address

0

Area 1 data size

0

Area 1 data pattern

NA

Area 2 data top address

0

Area 2 data size

0

Area 2 data pattern

NA

Node name"Tester"

Node number

2

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top address

According to the numberof input points of theslave, the EUT:
* 0 point: 0* 1 point or more: 4

Area 1 data size

To be calculated from thenumber of input points ofthe slave, the EUT

Area 1 data pattern

Optional

Area 2 data top address

16

Area 2 data size

To be calculated from thenumbers of input andoutput points of the slave,
the EUT

Area 2 data pattern

Optional

Node name"TargetNode"

Pattern 4 (EUT slave node)
EUTJEM 1480:2023– 100 –

Table 36 – Frame format (continued)
Setting parameter(node)(continued)

Test equipment(The parameters
vary according to
the EUT class)

Class6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 1 data pattern
Area 2 data top address
Area 2 data size
Area 2 data pattern
Node name
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

4 (Flexible master)
1
50
10
According to the numberof output points of theslave, the EUT:
* 0 point: 0* 1 point or more: 256
According to the numberof output points of theslave, the EUT
NA
1024
16
NA
"Tester"
1

Slave node number =16#8002(Flexible setting mode,
node number = 2)
Input data address =According to the numberof input points of theslave, the EUT:
* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more:
16#0004(Area 1, address = 4)
Input data size = To be
calculated from thenumber of input points ofthe slave, the EUT
Output data address =According to the numberof output points of theslave, the EUT:
* 0 point : 16#0000(Area 1, address = 0)
* 1 point or more:
16#0100(Area 1, address =256)
Output data size = To be
calculated from thenumber of output pointsof the slave, the EUT
Input status address =16#8010(Area 2, address = 16)
Output status address =16#8400(Area 2, address = 1024)

– 101 –JEM 1480:2023

Table 36 – Frame format (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test equipment(The parameters
vary according
to the EUT
class)(continued)

Class 7

Pattern 1 (no common memory)
EUT

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 1 data pattern
Area 2 data top address
Area 2 data size
Area 2 data pattern
Node name3 (Controller)
150
10Cyclic frame
Header part data size =64 octets
Data size = 0 octet
Contents of header(Offset: name = content)
16#00: H_TYPE =16#4641_434E
16#04: TFL =16#0000_0040
16#08: SA =16#0001_0055
16#0C: DA =16#0001_0001
16#10: V_SEQ =(Optional)
16#14: SEQ = (Optional)
16#18: M_CTL = any oneof those follows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000
16#1C: ULS = (Optional)
16#1E: M_SZ =(Optional)
16#20: M_ADD =(Optional)
16#24: MFT = 16#0A
16#25: M_RLT =(Optional)
16#28: TCD = 16#FDE9
16#2A: VER = 16#0000
16#2C: C_AD1 =16#0000

Token frame
Header part data size =64 octets
Data size = 0 octet
Contents of header(Offset: name = content)
16#00: H_TYPE =16#4641_434E
16#04: TFL =16#0000_0040
16#08: SA =16#0001_0055
16#0C: DA =16#0001_0001
16#10: V_SEQ =(Optional)
16#14: SEQ = (Optional)
16#18: M_CTL = any oneof those follows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000
16#1C: ULS = (Optional)
16#1E: M_SZ =(Optional)
16#20: M_ADD =(Optional)
16#24: MFT = 16#0A
16#25: M_RLT =(Optional)
16#28: TCD = 16#FDE8
16#2A: VER = 16#0000
16#2C: C_AD1 =16#0000

0
0
NA
0
0
NA
"Tester"JEM 1480:2023– 102 –

Table 36 – Frame format (continued)
Setting parameter(test data)(continued)

EUT(continued)

16#2E: C_SZ1 =16#0000
16#30: C_AD2 =16#0000
16#32: C_SZ2 =16#0000
16#34: MODE = 16#8200
16#36: P_TYPE = 16#80
16#37: PRI = 16#00
16#38: CBN = 16#01
16#39: TBN = 16#01
16#3A: BSIZE = 16#0040
16#3C: LKS = (Optional)
16#3D: TW = 16#64
16#3E: RCT = (Optional)
Pattern 2 (common memory size = single frame)
EUTClasses 1, 3
Cyclic frame
(The
and 4
Header part data size =parameters
64 octetsvary according
Data size = 136 octets
to the class)Content of header(Offset: name = content)
16#00: H_TYPE =16#4641_434E
16#04: TFL =16#0000_00C8
16#08: SA =16#0001_0055
16#0C: DA =16#0001_0001
16#10: V_SEQ =(Optional)
16#14: SEQ = (Optional)
16#18: M_CTL = any oneof those follows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000
16#1C: ULS = (Optional)
16#1E: M_SZ =(Optional)
16#20: M_ADD =(Optional)
16#24: MFT = 16#0A
16#25: M_RLT =(Optional)
16#28: TCD = 16#FDE9
16#2A: VER = 16#0000
16#2C: C_AD1 =16#0004
16#2E: C_SZ1 =16#0004
16#30: C_AD2 =16#0040
16#32: C_SZ2 =16#0040

16#2E: C_SZ1 =16#0000
16#30: C_AD2 =16#0000
16#32: C_SZ2 =16#0000
16#34: MODE = 16#8200
16#36: P_TYPE = 16#80
16#37: PRI = 16#00
16#38: CBN = 16#01
16#39: TBN = 16#01
16#3A: BSIZE = 16#0040
16#3C: LKS = (Optional)
16#3D: TW = 16#64
16#3E: RCT = (Optional)
Token frame
Header part data size =64 octets
Data size = 0 octet
Content of header(Offset: name = content)
16#00: H_TYPE =16#4641_434E
16#04: TFL =16#0000_0040
16#08: SA =16#0001_0055
16#0C: DA =16#0001_0001
16#10: V_SEQ =(Optional)
16#14: SEQ = (Optional)
16#18: M_CTL = any oneof those follows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000
16#1C: ULS = (Optional)
16#1E: M_SZ =(Optional)
16#20: M_ADD =(Optional)
16#24: MFT = 16#0A
16#25: M_RLT =(Optional)
16#28: TCD = 16#FDE8
16#2A: VER = 16#0000
16#2C: C_AD1 =16#0004
16#2E: C_SZ1 =16#0004
16#30: C_AD2 =16#0040
16#32: C_SZ2 =16#0040

– 103 –JEM 1480:2023

Table 36 – Frame format (continued)
Setting parameter(test data)(continued)

EUT
(The
parameters vary
according to theclass)(continued)

Classes 1, 3
and 4
(continued)

Class 516#34: MODE = 16#8200
16#36: P_TYPE = 16#80
16#37: PRI = 16#00
16#38: CBN = 16#01
16#39: TBN = 16#01
16#3A: BSIZE =16#00C8
16#3C: LKS = (Optional)
16#3D: TW = 16#32
16#3E: RCT = (Optional)
Cyclic frame
Header part data size =64 octets
Data size = 400 octets
Contents of header(Offset: name = content)
16#00: H_TYPE =16#4641_434E
16#04: TFL =16#0000_01D0
16#08: SA =16#0001_0064
16#0C: DA =16#0001_0001
16#10: V_SEQ =(Optional)
16#14: SEQ = (Optional)
16#18: M_CTL = any oneof those follows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000
16#1C: ULS = (Optional)
16#1E: M_SZ =(Optional)
16#20: M_ADD =(Optional)
16#24: MFT = 16#0A
16#25: M_RLT =(Optional)
16#28: TCD = 16#FDE9
16#2A: VER = 16#0000
16#2C: C_AD1 =16#0100
16#2E: C_SZ1 =16#0028
16#30: C_AD2 =16#0400
16#32: C_SZ2 =16#00A0
16#34: MODE = 16#8200
16#36: P_TYPE = 16#80
16#37: PRI = 16#00
16#38: CBN = 16#01
16#39: TBN = 16#01
16#3A: BSIZE =16#01D0
16#3C: LKS = (Optional)
16#3D: TW = 16#32
16#3E: RCT = (Optional)

16#34: MODE = 16#8200
16#36: P_TYPE = 16#80
16#37: PRI = 16#00
16#38: CBN = 16#01
16#39: TBN = 16#01
16#3A: BSIZE = 16#0040
16#3C: LKS = (Optional)
16#3D: TW = 16#32
16#3E: RCT = (Optional)
Token frame
Header part data size =64 octets
Data size = 0 octet
Contents of header(Offset: name = content)
16#00: H_TYPE =16#4641_434E
16#04: TFL =16#0000_0040
16#08: SA =16#0001_0064
16#0C: DA =16#0001_0001
16#10: V_SEQ =(Optional)
16#14: SEQ = (Optional)
16#18: M_CTL = any oneof those follows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000
16#1C: ULS = (Optional)
16#1E: M_SZ =(Optional)
16#20: M_ADD =(Optional)
16#24: MFT = 16#0A
16#25: M_RLT =(Optional)
16#28: TCD = 16#FDE8
16#2A: VER = 16#0000
16#2C: C_AD1 =16#0100
16#2E: C_SZ1 =16#0028
16#30: C_AD2 =16#0400
16#32: C_SZ2 =16#00A0
16#34: MODE = 16#8200
16#36: P_TYPE = 16#80
16#37: PRI = 16#00
16#38: CBN = 16#01
16#39: TBN = 16#01
16#3A: BSIZE = 16#0040
16#3C: LKS = (Optional)
16#3D: TW = 16#32
16#3E: RCT = (Optional)

JEM 1480:2023– 104 –

Table 36 – Frame format (continued)
Setting parameter(test data)(continued)

Pattern 3 (common memory size = single frame maximum)
EUT
Cyclic frame
Header part data size =64 octets
Data size = 1024 octets
Contents of header(Offset: name = content)
16#00: H_TYPE =16#4641_434E
16#04: TFL =16#0000_0440
16#08: SA =16#0001_0055
16#0C: DA =16#0001_0001
16#10: V_SEQ =(Optional)
16#14: SEQ = (Optional)
16#18: M_CTL = any oneof those follows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000
16#1C: ULS = (Optional)
16#1E: M_SZ =(Optional)
16#20: M_ADD =(Optional)
16#24: MFT = 16#0A
16#25: M_RLT =(Optional)
16#28: TCD = 16#FDE9
16#2A: VER = 16#0000
16#2C: C_AD1 =16#0004
16#2E: C_SZ1 =16#0004
16#30: C_AD2 =16#0040
16#32: C_SZ2 =16#01FC
16#34: MODE = 16#8200
16#36: P_TYPE = 16#80
16#37: PRI = 16#00
16#38: CBN = 16#01
16#39: TBN = 16#01
16#3A: BSIZE = 16#0440
16#3C: LKS = (Optional)
16#3D: TW = 16#32
16#3E: RCT = (Optional)
Pattern 4 (EUT slave node)
EUT
Cyclic frame
Header part data size =64 octets

Token frame
Header part data size =64 octets
Data size = 0 octet
Contents of header(Offset: name = content)
16#00: H_TYPE =16#4641_434E
16#04: TFL =16#0000_0040
16#08: SA =16#0001_0055
16#0C: DA =16#0001_0001
16#10: V_SEQ =(Optional)
16#14: SEQ = (Optional)
16#18: M_CTL = any oneof those follows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000
16#1C: ULS = (Optional)
16#1E: M_SZ =(Optional)
16#20: M_ADD =(Optional)
16#24: MFT = 16#0A
16#25: M_RLT =(Optional)
16#28: TCD = 16#FDE8
16#2A: VER = 16#0000
16#2C: C_AD1 =16#0004
16#2E: C_SZ1 =16#0004
16#30: C_AD2 =16#0040
16#32: C_SZ2 =16#01FC
16#34: MODE = 16#8200
16#36: P_TYPE = 16#80
16#37: PRI = 16#00
16#38: CBN = 16#01
16#39: TBN = 16#01
16#3A: BSIZE = 16#0040
16#3C: LKS = (Optional)
16#3D: TW = 16#32
16#3E: RCT = (Optional)
Token frame
Header part data size =64 octets– 105 –JEM 1480:2023

Table 36 – Frame format (continued)
Setting parameter(test data)(continued)

EUT(continued)

Data size = According to
the numbers of input andoutput points of the slave,
the EUT
Contents of header(Offset: name = content)
16#00: H_TYPE =16#4641_434E
16#04: TFL = According
to the numbers of input
and output points of theslave, the EUT
16#08: SA =16#0001_0002
16#0C: DA =16#0001_0001
16#10: V_SEQ =(Optional)
16#14: SEQ = (Optional)
16#18: M_CTL = any oneof those follows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000
16#1C: ULS = (Optional)
16#1E: M_SZ =(Optional)
16#20: M_ADD =(Optional)
16#24: MFT = 16#0A
16#25: M_RLT =(Optional)
16#28: TCD = 16#FDE9
16#2A: VER = 16#0000
16#2C: C_AD1 =According to the numberof input points of theslave, the EUT:
* 0 point: 16#0000* 1 point or more:
16#0004
16#2E: C_SZ1 = To be
calculated from thenumber of input points ofthe slave, the EUT
16#30: C_AD2 =16#0010
16#32: C_SZ2 = To be
calculated from thenumbers of input andoutput points of the slave,
the EUT
16#34: MODE = 16#8200
16#36: P_TYPE = 16#80
16#37: PRI = 16#00
16#38: CBN = To be
calculated from thenumbers of input andoutput points of the slave,
the EUT
16#39: TBN = To be
calculated from thenumbers of input andoutput points of the slave,
the EUT

Data size = 0 octet

Contents of header(Offset: name = content)
16#00: H_TYPE =16#4641_434E
16#04: TFL =16#0000_0040
16#08: SA =16#0001_0002
16#0C: DA =16#0001_0001
16#10: V_SEQ =(Optional)
16#14: SEQ = (Optional)
16#18: M_CTL = any oneof those follows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000
16#1C: ULS = (Optional)
16#1E: M_SZ =(Optional)
16#20: M_ADD =(Optional)
16#24: MFT = 16#0A
16#25: M_RLT =(Optional)
16#28: TCD = 16#FDE8
16#2A: VER = 16#0000
16#2C: C_AD1 =According to the numberof input points of theslave, the EUT:
* 0 point: 16#0000* 1 point or more:
16#0004
16#2E: C_SZ1 = To be
calculated from thenumber of input points ofthe slave, the EUT
16#30: C_AD2 =16#0010
16#32: C_SZ2 = To be
calculated from thenumbers of input andoutput points of the slave,
the EUT
16#34: MODE = 16#8200
16#36: P_TYPE = 16#80
16#37: PRI = 16#00
16#38: CBN = 16#01

16#39: TBN = 16#01

JEM 1480:2023– 106 –

Table 36 – Frame format (continued)
Setting parameter(test data)(continued)

EUT(continued)

16#3A: BSIZE = To be
calculated from thenumbers of input andoutput points of the slave,
the EUT

16#3A: BSIZE = 16#0040

16#3C: LKS = (Optional)

16#3C: LKS = (Optional)

16#3D: TW = 16#32

16#3D: TW = 16#32

16#3E: RCT = (Optional)

16#3E: RCT = (Optional)

Table 37 – Frame format (divided)
Test number

V2-031

Major test group

Cyclic transmission

Test group

Normal operation test

Test objects

Flame format (divided)

Test procedure

Start the EUT, then start the test equipment.
Execute tests with settings maximum three patterns according to class of the EUT.

Evaluation criteria

Confirm that contents and size of the header part are correct.
Refer setting parameter (test data) for the contents of the header.

Test
necessity
identified
by theEUT class

Class 1R (patterns 1 through 3)

Class 2

N

Class 3R (patterns 1 through 3)

Class 4R (patterns 2 through 3)

Class 5R (patterns 1 and 2)

Class 6

No

Class 7N

Setting parameter(node)

Pattern 1 (common memory size = minimum)
EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Node number

85

Token watchdog
time

50

Allowable
minimum frameinterval time

10

Area 1 data top
address

4

Area 1 data size

1

Area 1 data
pattern

Optional

Area 2 data top
address

64

Area 2 data size

512

Area 2 data
pattern

Optional

Node name"TargetNode"– 107 –JEM 1480:2023

Table 37 – Frame format (divided) (continued)
Setting parameter(node)(continued)

EUT
(The
parameters
vary according
to the class)(continued)

Class 5

Test equipment

Node number

100

Token watchdog
time

50

Allowable
minimum frameinterval time

10

Area 1 data top
address

256

Area 1 data size

104

Area 1 data
pattern

Optional

Area 2 data top
address

1024

Area 2 data size

416

Area 2 data
pattern

Optional

Node name"TargetNode"

Node number

1

Token watchdog
time

50

Allowable
minimum frameinterval time

10

Area 1 data top
address0

Area 1 data size

0

Area 1 data
pattern

NA

Area 2 data top
address0

Area 2 data size

0

Area 2 data
pattern

NA

Node name"Tester"

Pattern 2 (common memory size = intermediate)
EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Implementationclass

3 (Controller)

Node number

85

Token watchdog
time

200

Allowable
minimum frameinterval time

10

Area 1 data top
address

4

Area 1 data size

256

Area 1 data
pattern

Optional

Area 2 data top
address

64

Area 2 data size

4096

Area 2 data
pattern

Optional

Node name"TargetNode"JEM 1480:2023– 108 –

Table 37 – Frame format (divided) (continued)
Setting parameter(node)(continued)

EUT
(The
parameters
vary according
to the class)(continued)

Test equipment

Class 5

Node number

100

Token watchdog
time

200

Allowable
minimum frameinterval time

10

Area 1 data top
address

256

Area 1 data size

256

Area 1 data
pattern

Optional

Area 2 data top
address

1024

Area 2 data size

1024

Area 2 data
pattern

Optional

Node name"TargetNode"

Implementationclass

3 (Controller)

Node number

1

Token watchdog
time

50

Allowable
minimum frameinterval time

10

Area 1 data top
address0

Area 1 data size

0

Area 1 data
pattern

NA

Area 2 data top
address0

Area 2 data size

0

Area 2 data
pattern

NA

Node name"Tester"

Pattern 3 (common memory size = maximum)
EUT

Node number

80

Token watchdog
time

200

Allowable
minimum frameinterval time

10

Area 1 data top
address0

Area 1 data size

512

Area 1 data
pattern

Optional

Area 2 data top
address0

Area 2 data size

8192

Area 2 data
pattern

Optional

Node name"TargetNode"– 109 –JEM 1480:2023

Table 37 – Frame format (divided) (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test equipment

Implementationclass

3(controller)

Node number

1

Token watchdog
time

50

Allowable
minimum frameinterval time

10

Area 1 data top
address0

Area 1 data size

0

Area 1 data
pattern

NA

Area 2 data top
address0

Area 2 data size

0

Area 2 data
pattern

NA

Node name"Tester"

Pattern 1 (common memory size = minimum)
EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4a) Cyclic frame(CBN != TBN)

b) Cyclic frame(CBN = TBN)c) Token frame

Header part data
size = 64 octets

Header part data
size = 64 octets

Header part
data size = 64
octetsData size =1024 octets

Data size = 2
octetsData size = 0
octet

Contents ofheader(Offset: name =content)

Contents ofheader(Offset: name =content)

Contents ofheader(Offset: name =content)

16#00: H_TYPE=
16#4641_434E

16#00: H_TYPE=
16#4641_434E

16#00: H_TYPE=
16#4641_434E

16#04: TFL =16#0000_0442

16#04: TFL =16#0000_0442

16#04: TFL =16#0000_0040

16#08: SA =16#0001_0055

16#08: SA =16#0001_0055

16#08: SA =16#0001_0055

16#0C: DA =16#0001_0001

16#0C: DA =16#0001_0001

16#0C: DA =16#0001_0001

16#10: V_SEQ= (Optional)

16#10: V_SEQ= (Optional)

16#10: V_SEQ= (Optional)

16#14: SEQ =(Optional)

16#14: SEQ =(Optional)

16#14: SEQ =(Optional)

16#18: M_CTL =any one of thosefollows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000

16#18: M_CTL =any one of thosefollows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000

16#18: M_CTL =any one of thosefollows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000

16#1C: ULS =(Optional)

16#1C: ULS =(Optional)

16#1C: ULS =(Optional)

JEM 1480:2023– 110 –

Table 37 – Frame format (divided) (continued)
Setting parameter(test data)

EUT
(The
parameters
vary according
to the class)(continued)

Classes 1, 3
and 4
(continued)

Class 5

16#1E: M_SZ =(Optional)

16#1E: M_SZ =(Optional)

16#1E: M_SZ =(Optional)

16#20: M_ADD= (Optional)

16#20: M_ADD= (Optional)

16#20: M_ADD= (Optional)

16#24: MFT =(Optional)

16#24: MFT =16#0A

16#24: MFT =16#0A

16#25: M_RLT =(Optional)

16#25: M_RLT =(Optional)

16#25: M_RLT =(Optional)

16#28: TCD =16#FDE9

16#28: TCD =16#FDE9

16#28: TCD =16#FDE8

16#2A: VER =16#0000

16#2A: VER =16#0000

16#2A: VER =16#0000

16#2C: C_AD1= 16#0004

16#2C: C_AD1= 16#0004

16#2C: C_AD1= 16#0004

16#2E: C_SZ1 =16#0001

16#2E: C_SZ1 =16#0001

16#2E: C_SZ1 =16#0001

16#30: C_AD2 =16#0040

16#30: C_AD2 =16#0040

16#30: C_AD2 =16#0040

16#32: C_SZ2 =16#0200

16#32: C_SZ2 =16#0200

16#32: C_SZ2 =16#0200

16#34: MODE =16#8200

16#34: MODE =16#8200

16#34: MODE =16#8200

16#36: P_TYPE= 16#80

16#36: P_TYPE= 16#80

16#36: P_TYPE= 16#80

16#37: PRI =16#00

16#37: PRI =16#00

16#37: PRI =16#00

16#38: CBN =16#01

16#38: CBN =16#02

16#38: CBN =16#01

16#39: TBN =16#02

16#39: TBN =16#02

16#39: TBN =16#02

16#3A: BSIZE =16#0440

16#3A: BSIZE =16#0042

16#3A: BSIZE =16#0040

16#3C: LKS =(Optional)

16#3C: LKS =(Optional)

16#3C: LKS =(Optional)

16#3D: TW =16#32

16#3D: TW =16#32

16#3D: TW =16#32

16#3E: RCT =(Optional)

16#3E: RCT =(Optional)

16#3E: RCT =(Optional)a) Cyclic frame(CBN != TBN)

b) Cyclic frame(CBN = TBN)c) Token frame

Header part data
size = 64 octets

Header part data
size = 64 octets

Header part
data size = 64
octetsData size =1024 octets

Data size = 16
octetsData size = 0
octet

Contents ofheader(Offset: name =content)

Contents ofheader(Offset: name =content)

Contents ofheader(Offset: name =content)

16#00: H_TYPE=
16#4641_434E

16#00: H_TYPE=
16#4641_434E

16#00: H_TYPE=
16#4641_434E

– 111 –JEM 1480:2023

Table 37 – Frame format (divided) (continued)
Setting parameter(test data)(continued)

EUT
(The
parameters
vary according
to the class)(continued)

Class 5
(continued)

16#04: TFL =16#0000_0450

16#04: TFL =16#0000_0450

16#04: TFL =16#0000_0040

16#08: SA =16#0001_0064

16#08: SA =16#0001_0064

16#08: SA =16#0001_0064

16#0C: DA =16#0001_0001

16#0C: DA =16#0001_0001

16#0C: DA =16#0001_0001

16#10: V_SEQ= (Optional)

16#10: V_SEQ= (Optional)

16#10: V_SEQ= (Optional)

16#14: SEQ =(Optional)

16#14: SEQ =(Optional)

16#14: SEQ =(Optional)

16#18: M_CTL =any one of thosefollows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000

16#18: M_CTL =any one of thosefollows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000

16#18: M_CTL =any one of thosefollows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000

16#1C: ULS =(Optional)

16#1C: ULS =(Optional)

16#1C: ULS =(Optional)

16#1E: M_SZ =(Optional)

16#1E: M_SZ =(Optional)

16#1E: M_SZ =(Optional)

16#20: M_ADD= (Optional)

16#20: M_ADD= (Optional)

16#20: M_ADD= (Optional)

16#24: MFT =(Optional)

16#24: MFT =16#0A

16#24: MFT =16#0A

16#25: M_RLT =(Optional)

16#25: M_RLT =(Optional)

16#25: M_RLT =(Optional)

16#28: TCD =16#FDE9

16#28: TCD =16#FDE9

16#28: TCD =16#FDE8

16#2A: VER =16#0000

16#2A: VER =16#0000

16#2A: VER =16#0000

16#2C: C_AD1= 16#0100

16#2C: C_AD1= 16#0100

16#2C: C_AD1= 16#0100

16#2E: C_SZ1 =16#0068

16#2E: C_SZ1 =16#0068

16#2E: C_SZ1 =16#0068

16#30: C_AD2 =16#0400

16#30: C_AD2 =16#0400

16#30: C_AD2 =16#0400

16#32: C_SZ2 =16#01A0

16#32: C_SZ2 =16#01A0

16#32: C_SZ2 =16#01A0

16#34: MODE =16#8200

16#34: MODE =16#8200

16#34: MODE =16#8200

16#36: P_TYPE= 16#80

16#36: P_TYPE= 16#80

16#36: P_TYPE= 16#80

16#37: PRI =16#00

16#37: PRI =16#00

16#37: PRI =16#00

16#38: CBN =16#01

16#38: CBN =16#02

16#38: CBN =16#01

16#39: TBN =16#02

16#39: TBN =16#02

16#39: TBN =16#01

16#3A: BSIZE =16#0440

16#3A: BSIZE =16#0050

16#3A: BSIZE =16#0040JEM 1480:2023– 112 –

Table 37 – Frame format (divided) (continued)
Setting parameter(test data)(continued)

EUT
(The
parameters
vary according
to the class)(continued)

Class 5
(continued)

16#3C: LKS =(Optional)

16#3C: LKS =(Optional)

16#3C: LKS =(Optional)

16#3D: TW =16#32

16#3D: TW =16#32

16#3D: TW =16#32

16#3E: RCT =(Optional)

16#3E: RCT =(Optional)

16#3E: RCT =(Optional)a) Cyclic frame(CBN != TBN)

b) Cyclic frame(CBN = TBN)c) Token frame

Header part
data size = 64
octetsHeader part data
size = 64 octets

Header part
data size = 64
octetsData size =1024 octets

Data size = 512
octetsData size = 0
octet

Contents ofheader(Offset: name =content)

Contents ofheader(Offset: name =content)

Contents ofheader(Offset: name =content)

16#00: H_TYPE=
16#4641_434E

16#00: H_TYPE=
16#4641_434E

16#00: H_TYPE=
16#4641_434E

16#04: TFL =16#0000_2240

16#04: TFL =16#0000_2240

16#04: TFL =16#0000_0040

16#08: SA =16#0001_0055

16#08: SA =16#0001_0055

16#08: SA =16#0001_0055

16#0C: DA =16#0001_0001

16#0C: DA =16#0001_0001

16#0C: DA =16#0001_0001

16#10: V_SEQ= (Optional)

16#10: V_SEQ= (Optional)

16#10: V_SEQ= (Optional)

16#14: SEQ =(Optional)

16#14: SEQ =(Optional)

16#14: SEQ =(Optional)

16#18: M_CTL= any one ofthose follows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000

16#18: M_CTL =any one of thosefollows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000

16#18: M_CTL =any one of thosefollows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000

16#1C: ULS =(Optional)

16#1C: ULS =(Optional)

16#1C: ULS =(Optional)

16#1E: M_SZ =(Optional)

16#1E: M_SZ =(Optional)

16#1E: M_SZ =(Optional)

16#20: M_ADD= (Optional)

16#20: M_ADD= (Optional)

16#20: M_ADD= (Optional)

16#24: MFT =(Optional)

16#24: MFT =16#0A

16#24: MFT =16#0A

16#25: M_RLT= (Optional)

16#25: M_RLT =(Optional)

16#25: M_RLT =(Optional)

16#28: TCD =16#FDE9

16#28: TCD =16#FDE9

16#28: TCD =16#FDE8

16#2A: VER =16#0000

16#2A: VER =16#0000

16#2A: VER =16#0000

Pattern 2 (common memory size = intermediate)
EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

– 113 –JEM 1480:2023

Table 37 – Frame format (divided) (continued)
Setting parameter(test data)(continued)

EUT
(The
parameters
vary according
to the class)(continued)

Classes 1, 3
and 4
(continued)

Class 5

16#2C: C_AD1= 16#0004

16#2C: C_AD1= 16#0004

16#2C: C_AD1= 16#0004

16#2E: C_SZ1 =16#0100

16#2E: C_SZ1 =16#0100

16#2E: C_SZ1 =16#0100

16#30: C_AD2 =16#0040

16#30: C_AD2 =16#0040

16#30: C_AD2 =16#0040

16#32: C_SZ2 =16#1000

16#32: C_SZ2 =16#1000

16#32: C_SZ2 =16#0100

16#34: MODE =16#8200

16#34: MODE =16#8200

16#34: MODE =16#8200

16#36: P_TYPE= 16#80

16#36: P_TYPE= 16#80

16#36: P_TYPE= 16#80

16#37: PRI =16#00

16#37: PRI =16#00

16#37: PRI =16#00

16#38: CBN =16#01 through16#08

16#38: CBN =16#09

16#38: CBN =16#01

16#39: TBN =16#09

16#39: TBN =16#09

16#39: TBN =16#01

16#3A: BSIZE =16#0440

16#3A: BSIZE =16#0240

16#3A: BSIZE =16#0040

16#3C: LKS =(Optional)

16#3C: LKS =(Optional)

16#3C: LKS =(Optional)

16#3D: TW =(Optional)

16#3D: TW =16#C8

16#3D: TW =16#C8

16#3E: RCT =(Optional)

16#3E: RCT =(Optional)

16#3E: RCT =(Optional)a) Cyclic frame(CBN != TBN)

b) Cyclic frame(CBN = TBN)

C) Token frame

Header part
data size = 64
octetsHeader part data
size = 64 octets

Header part
data size = 64
octetsData size =1024 octets

Data size = 512
octetsData size = 0
octet

Contents ofheader(Offset: name =content)

Contents ofheader(Offset: name =content)

Contents ofheader(Offset: name =content)

16#00: H_TYPE=
16#4641_434E

16#00: H_TYPE=
16#4641_434E

16#00: H_TYPE=
16#4641_434E

16#04: TFL =16#0000_0A40

16#04: TFL =16#0000_0A40

16#04: TFL =16#0000_0040

16#08: SA =16#0001_0064

16#08: SA =16#0001_0064

16#08: SA =16#0001_0064

16#0C: DA =16#0001_0064

16#0C: DA =16#0001_0001

16#0C: DA =16#0001_0001

16#10: V_SEQ= (Optional)

16#10: V_SEQ= (Optional)

16#10: V_SEQ= (Optional)

16#14: SEQ =(Optional)

16#14: SEQ =(Optional)

16#14: SEQ =(Optional)

JEM 1480:2023– 114 –

Table 37 – Frame format (divided) (continued)
Setting parameter(test data)(continued)

EUT
(The
parameters
vary according
to the class)(continued)

Class 5
(continued)

16#18: M_CTL =any one of thosefollows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000

16#18: M_CTL= any one ofthose follows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000

16#18: M_CTL =any one of thosefollows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000

16#1C: ULS =(Optional)

16#1C: ULS =(Optional)

16#1C: ULS =(Optional)

16#1E: M_SZ =(Optional)

16#1E: M_SZ =(Optional)

16#1E: M_SZ =(Optional)

16#20: M_ADD= (Optional)

16#20: M_ADD= (Optional)

16#20: M_ADD= (Optional)

16#24: MFT =(Optional)

16#24: MFT =16#0A

16#24: MFT =16#0A

16#25: M_RLT =(Optional)

16#25: M_RLT= (Optional)

16#25: M_RLT =(Optional)

16#28: TCD =16#FDE9

16#28: TCD =16#FDE9

16#28: TCD =16#FDE8

16#2A: VER =16#0000

16#2A: VER =16#0000

16#2A: VER =16#0000

16#2C: C_AD1= 16#0100

16#2C: C_AD1= 16#0100

16#2C: C_AD1= 16#0100

16#2E: C_SZ1 =16#0100

16#2E: C_SZ1 =16#0100

16#2E: C_SZ1 =16#0100

16#30: C_AD2 =16#0400

16#30: C_AD2 =16#0400

16#30: C_AD2 =16#0400

16#32: C_SZ2 =16#0400

16#32: C_SZ2 =16#0400

16#32: C_SZ2 =16#0400

16#34: MODE =16#8200

16#34: MODE =16#8200

16#34: MODE =16#8200

16#36: P_TYPE= 16#80

16#36: P_TYPE= 16#80

16#36: P_TYPE= 16#80

16#37: PRI =16#00

16#37: PRI =16#00

16#37: PRI =16#00

16#38: CBN =16#01 through16#08

16#38: CBN =16#03

16#38: CBN =16#01

16#39: TBN =16#03

16#39: TBN =16#03

16#39: TBN =16#01

16#3A: BSIZE =16#0440

16#3A: BSIZE =16#0240

16#3A: BSIZE =16#0040

16#3C: LKS =(Optional)

16#3C: LKS =(Optional)

16#3C: LKS =(Optional)

16#3D: TW =(Optional)

16#3D: TW =16#C8

16#3D: TW =16#C8

16#3E: RCT =(Optional)

16#3E: RCT =(Optional)

16#3E: RCT =(Optional)

– 115 –JEM 1480:2023

Table 37 – Frame format (divided) (continued)
Setting parameter(test data)(continued)

Pattern 3 (common memory size = maximum)
EUTa) Cyclic frame(CBN != TBN)

b) Cyclic frame(CBN = TBN)c) Token frame

Header part
data size = 64
octetsHeader part
data size = 64
octetsHeader part
data size = 64
octetsData size =1024 octets

Data size =1024 octets

Data size = 0
octet

Contents ofheader(Offset: name =content)

Contents ofheader(Offset: name =content)

Contents ofheader(Offset: name =content)

16#00: H_TYPE=
16#4641_434E

16#00: H_TYPE=
16#4641_434E

16#00: H_TYPE=
16#4641_434E

16#04: TFL =16#0000_4440

16#04: TFL =16#0000_4440

16#04: TFL =16#0000_0040

16#08: SA =16#0001_0055

16#08: SA =16#0001_0055

16#08: SA =16#0001_0055

16#0C: DA =16#0001_0001

16#0C: DA =16#0001_0001

16#0C: DA =16#0001_0001

16#10: V_SEQ= (Optional)

16#10: V_SEQ= (Optional)

16#10: V_SEQ= (Optional)

16#14: SEQ =(Optional)

16#14: SEQ =(Optional)

16#14: SEQ =(Optional)

16#18: M_CTL =any one of thosefollows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000

16#18: M_CTL= any one ofthose follows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000

16#18: M_CTL= any one ofthose follows:
16#0000_0000,
16#0100_0000,
16#0200_0000,
16#0300_0000

16#1C: ULS =(Optional)

16#1C: ULS =(Optional)

16#1C: ULS =(Optional)

16#1E: M_SZ =(Optional)

16#1E: M_SZ =(Optional)

16#1E: M_SZ =(Optional)

16#20: M_ADD= (Optional)

16#20: M_ADD= (Optional)

16#20: M_ADD= (Optional)

16#24: MFT =(Optional)

16#24: MFT =16#0A

16#24: MFT =16#0A

16#25: M_RLT =(Optional)

16#25: M_RLT= (Optional)

16#25: M_RLT= (Optional)

16#28: TCD =16#FDE9

16#28: TCD =16#FDE9

16#28: TCD =16#FDE8

16#2A: VER =16#0000

16#2A: VER =16#0000

16#2A: VER =16#0000

16#2C: C_AD1= 16#0000

16#2C: C_AD1= 16#0000

16#2C: C_AD1= 16#0000

16#2E: C_SZ1 =16#0200

16#2E: C_SZ1 =16#2000

16#2E: C_SZ1 =16#2000

JEM 1480:2023– 116 –

Table 37 – Frame format (divided) (continued)
Setting parameter(test data)(continued)b)

EUT(continued)

16#30: C_AD2 =16#0000

16#30: C_AD2 =16#0000

16#30: C_AD2 =16#0000

16#32: C_SZ2 =16#2000

16#32: C_SZ2 =16#2000

16#32: C_SZ2 =16#2000

16#34: MODE =16#8200

16#34: MODE =16#8200

16#34: MODE =16#8200

16#36: P_TYPE= 16#80

16#36: P_TYPE= 16#80

16#36: P_TYPE= 16#80

16#37: PRI =16#00

16#37: PRI =16#00

16#37: PRI =16#00

16#38: CBN =16#01 through16#10

16#38: CBN =16#11

16#38: CBN =16#01

16#39: TBN =16#11

16#39: TBN =16#11

16#39: TBN =16#01

16#3A: BSIZE =16#0440

16#3A: BSIZE =16#0440

16#3A: BSIZE =16#0040

16#3C: LKS =(Optional)

16#3C: LKS =(Optional)

16#3C: LKS =(Optional)

16#3D: TW =(Optional)

16#3D: TW =16#C8

16#3D: TW =16#C8

16#3E: RCT =(Optional)

16#3E: RCT =(Optional)

16#3E: RCT =(Optional)

Abnormal operation of cyclic transmission

Tables 38 and 40 show test tables for abnormal operation of cyclic transmission.
Table 38 – Discard of abnormal frame (TBN, CBN)
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

V2-032Cyclic transmission
Abnormal operation test
Discard of abnormal frame (TBN, CBN)
Start the EUT, then Start the test equipment.
Execute tests for settings of patterns 1 and 2, respectively.
The test equipment sends abnormal frames continuously after operation of the test
equipment becomes stable. Refer the setting parameter table for format of theabnormal frames.
Confirm followings for both patterns 1 and 2:
All the contents of common memory area 1 and area 2 of the EUT have not changed.
Substitute confirmations of following items are allowed depending on the EUT class:* Classes 1 and 3: top and tail of each area.
* Classes 4 and 5: top and tail of input data from the test equipment (slave) and input
status.
* Classes 6 and 7: top and tail of output data from the test equipment (master) and output
status.
The test equipment does not disengage (timeout of such as token watchdog time does
not occur).
R
N
R
R
R
R
R

– 117 –JEM 1480:2023

Table 38 – Discard of abnormal frame (TBN, CBN) (continued)
Setting parameter(node)EUT(The parametervary according
to the class)

Classes 1
and 3Class 4

Node number

85

Token watchdog time100

Allowable minimum
frame interval time

10

Area 1 data top
address0

Area 1 data size

0

Area 1 data pattern

NA

Area 2 data top
address0

Area 2 data size

0

Area 2 data pattern

NA

Node name"TargetNode"

Node number

85

Token watchdog time100

Allowable minimum
frame interval time

10

Area 1 data top
address0

Area 1 data size

0

Area 1 data pattern

NA

Area 2 data top
address

1024

Area 2 data size

1024

Area 2 data pattern

Optional

Node name"TargetNode"IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = 16#0100
Output data address =16#0000
Output data size = 16#0000
Input data status address =16#8000(Area 2, address = 0)
Output data status address =16#8400(Area 2, address = 1024)

JEM 1480:2023– 118 –

Table 38 – Discard of abnormal frame (TBN, CBN) (continued)
Setting parameter(node)(continued)

EUT(The parametervary according
to the class)(continued)

Class 5Classes 6
and 7

Test equipment(The parameters
vary according
to the EUT
class)Classes 1
and 3

Node number

100

Token watchdog time100

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

256

Area 1 data pattern

Optional

Area 2 data top
address

1024

Area 2 data size

1024

Area 2 data pattern

Optional

Node name"TargetNode"

Node number

1

Token watchdog time100

Allowable minimum
frame interval time0

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 1 data pattern

Optional

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

Area 2 data pattern

Optional

Node name"TargetNode"

Implementation class

3 (Controller)

Node number

1

Token watchdog time

200

Allowable minimum
frame interval time

10

Area 1 data top
address0

Area 1 data size

256

Area 1 data pattern

Optional

Area 2 data top
address0

Area 2 data size

4096

Area 2 data pattern

Optional

Node name"Tester"

– 119 –JEM 1480:2023

Table 38 – Discard of abnormal frame (TBN, CBN) (continued)
Setting parameter(node)(continued)

Test equipment(The parametervary according
to the EUT
class)(continued)

Class 4

Class 5Class 6

Implementation class6 (Flexible slave)

Node number

1

Token watchdog time

200

Allowable minimum
frame interval time

10

Area 1 data top
address

40

Area 1 data size

256

Area 1 data pattern

Optional (to update input
status optionally)

Area 2 data top
address0

Area 2 data size

1024

Area 2 data pattern

Optional (to update input data
optionally)

Node name"Tester"Number of input
points of the slave

4096

Number of output
points of the slave0

Implementation class

7 (Fixed slave)

Node number

1

Token watchdog time

200

Allowable minimum
frame interval time

10

Area 1 data top
address0

Area 1 data size

256

Area 1 data pattern

Optional (to update input data
optionally)

Area 2 data top
address0

Area 2 data size

1024

Area 2 data pattern

Optional (to update input
status optionally

Node name"Tester"Number of input
points of the slave

4096

Number of output
points of the slave0

Implementation class4 (Flexible master)

Node number

100

Token watchdog time

200

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

256

Area 1 data pattern

Optional (to update output
data optionally)

JEM 1480:2023– 120 –

Table 38 – Discard of abnormal frame (TBN, CBN) (continued)
Setting parameter(node)(continued)

Test equipment(The parametervary according
to the EUT
class)(continued)

Class 6
(continued)

Area 2 data top
address

1024

Area 2 data size

1024

Area 2 data pattern

Optional (to update output
status optionally

Node name"Tester"

IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input data status address =16#8000(Area 2, address = 0)
Output data status address =16#8400(Area 2, address = 1024)

Class 7

Implementation class

5 (Fixed master)

Node number

100

Token watchdog time

200

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

256

Area 1 data pattern

Optional (to update output
data optionally)

Area 2 data top
address

1024

Area 2 data size

1024

Area 2 data pattern

Optional (to update output
status optionally

Node name"Tester"

– 121 –JEM 1480:2023

Table 38 – Discard of abnormal frame (TBN, CBN) (continued)
Setting parameter(test data)

Abnormal frame
pattern 1(depending to
the EUT class)

Abnormal frame
pattern 2(depending to
the EUT class)

Classes 1
and 3

Skipping CBN/TBN = 03/09, transmit frames with
CBN/TBN = 01/09, 02/09, 04/09 through 09/09 in thisorder.

Classes 4
and 5

Skipping CBN/TBN = 02/03, transmit frames with
CBN/TBN = 01/03, 03/03 in this order.

Classes 6
and 7

Skipping CBN/TBN = 02/03, transmit frames with
CBN/TBN = 01/03, 03/03 in this order.

Classes 1
and 3

Duplicating CBN/TBN = 03/09, transmit frames with
CBN/TBN = 01/09, 02/09, 03/09, 03/09, 04/09 through09/09 in this order.

Classes 4
and 5

Duplicating CBN/TBN = 02/03, transmit frames with
CBN/TBN = 01/03, 02/03, 02/03, 03/03 in this order.

Classes 6
and 7

Duplicating CBN/TBN = 02/03, transmit frames with
CBN/TBN = 01/03, 02/03, 02/03, 03/03 in this order.

Table 39 – Discard of abnormal frame (BSIZE)
Test number

V2-033Major test group

Cyclic transmission

Test group

Abnormal operation test

Test objects

Discard of abnormal frame (BSIZE)

Test procedure

Start the EUT, then Start the test equipment.
After operation of the test equipment becomes stable, the test equipment sends a
BSIZE error frame as the final cyclic frame of dividing frame transmission. Refer thesetting parameter table for format of the abnormal frame.

Evaluation criteria

Confirm that all the contents of common memory area 1 and area 2 of the EUT havenot changed.
Substitute confirmations of following items are allowed depending on the EUT class:* Classes 1 and 3: top and tail of each area (all 0).
* Classes 4 and 5: top and tail of input data from the test equipment (slave) and input
status.
* Classes 6 and 7: top and tail of output data from the test equipment (master) and output
status.
Confirm that the test equipment does not disengage (timeout of such as token
watchdog time does not occur).

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

N

Class 3

R

Class 4

R

Class 5RClass 6

R

Class 7RJEM 1480:2023– 122 –

Table 39 – Discard of abnormal frame (BSIZE) (continued)
Setting parameter(node)EUT(The parametervary according
to the class)

Classes 1
and 3Class 4

Node number

85

Token watchdog time100

Allowable minimum
frame interval time

10

Area 1 data top
address0

Area 1 data size

0

Area 1 data pattern

NA

Area 2 data top
address0

Area 2 data size

0

Area 2 data pattern

NA

Node name"TargetNode"

Node number

85

Token watchdog time100

Allowable minimum
frame interval time

10

Area 1 data top
address0

Area 1 data size

0

Area 1 data pattern

NA

Area 2 data top
address

1024

Area 2 data size

1024

Area 2 data pattern

Optional

Node name"TargetNode"IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = 16#0100
Output data address =16#0000
Output data size = 16#0000
Input data status address =16#8000(Area 2, address = 0)
Output data status address =16#8400(Area 2, address = 1024)

Class 5

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time10

– 123 –JEM 1480:2023

Table 39 – Discard of abnormal frame (BSIZE) (continued)
Setting parameter(node)(continued)

EUT(The parametervary according
to the class)(continued)

Class 5
(continued)

Classes 6
and 7

Test equipment(The parameters
vary according
to the EUT
class)Classes 1
and 3Class 4

Area 1 data top
address

256

Area 1 data size

256

Area 1 data pattern

Optional

Area 2 data top
address

1024

Area 2 data size

1024

Area 2 data pattern

Optional

Node name"TargetNode"

Node number

1

Token watchdog time100

Allowable minimum
frame interval time

10

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 1 data pattern

Optional

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

Area 2 data pattern

Optional

Node name"TargetNode"

Implementation class

3 (Controller)

Node number

1

Token watchdog time

200

Allowable minimum
frame interval time

10

Area 1 data top
address0

Area 1 data size

256

Area 1 data pattern

Optional

Area 2 data top
address0

Area 2 data size

4096

Area 2 data pattern

Optional

Node name"Tester"

Implementation class6 (Flexible slave)

Node number

1

Token watchdog time

200

Allowable minimum
frame interval time

10

Area 1 data top
address

40

Area 1 data size

256

JEM 1480:2023– 124 –

Table 39 – Discard of abnormal frame (BSIZE) (continued)
Setting parameter(node)(continued)

Test equipment(The parametervary according
to the EUT
class)(continued)

Class 4
(continued)

Class 5Class 6

Area 1 data pattern

Optional (to update input
status optionally)

Area 2 data top
address0

Area 2 data size

1024

Area 2 data pattern

Optional (to update input data
optionally)

Node name"Tester"Number of input
points of the slave

4096

Number of output
points of the slave0

Implementation class

7 (Fixed slave)

Node number

1

Token watchdog time

200

Allowable minimum
frame interval time

10

Area 1 data top
address0

Area 1 data size

256

Area 1 data pattern

Optional (to update input data
optionally)

Area 2 data top
address0

Area 2 data size

16

Area 2 data pattern

Optional (to update input
status optionally

Node name"Tester"Number of input
points of the slave

4096

Number of output
points of the slave0

Implementation class4 (Flexible master)

Node number

100

Token watchdog time

200

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

256

Area 1 data pattern

Optional (to update output
data optionally)

Area 2 data top
address

1024

Area 2 data size

1024

Area 2 data pattern

Optional (to update output
status optionally

Node name"Tester"

IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number = 16#8001(Flexible setting mode, node
number = 1)

– 125 –JEM 1480:2023

Table 39 – Discard of abnormal frame (BSIZE) (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameter vary
according to
the EUT class)(continued)

Class 6
(continued)

IO allocation setting(slave setting)(continued)

Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input data status address =16#8000(Area 2, address = 0)
Output data status address =16#8400(Area 2, address = 1024)

Class 7

Setting parameter(test data)

Abnormalframe(depending on
the EUT class)

Implementation class

5 (Fixed master)

Node number

100

Token watchdog time

200

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

256

Area 1 data pattern

Optional (to update output
data optionally)

Area 2 data top
address

1024

Area 2 data size

1024

Area 2 data pattern

Optional (to update output
status optionally

Node name"Tester"Class 1and 3

BSIZE of the last cyclic frame (CBN = 9) = 16#200(refer: normal value = 16#240)
The last cyclic frame shall be the same as a normal
frame except BSIZE.

Class 4

BSIZE of the last cyclic frame (CBN = 3) = 16#1F0(refer: normal value = 16#200)
The last cyclic frame shall be the same as a normal
frame except BSIZE.

Class 5

BSIZE of the last cyclic frame (CBN = 1) = 16#200(refer: normal value = 16#260)
The last cyclic frame shall be the same as a normal
frame except BSIZE.

Class 6and 7

BSIZE of the last cyclic frame (CBN = 3) = 16#200(refer: normal value = 16#240)
The last cyclic frame shall be the same as a normal
frame except BSIZE.

JEM 1480:2023– 126 –

Table 40 – Discard of abnormal frame (TCD)
Test number

V2-034

Major test group

Cyclic transmission

Test group

Abnormal operation test

Test objects

Discard of abnormal frame (TCD)

Test procedure

Start the EUT, then Start the test equipment.
In case the EUT is class 6, the test equipment sends a solicitation frame.
c) Execute tests with each setting of patterns1 through 4, respectively.
d) After operation of the test equipment becomes stable, the test equipment sends theabnormal frame. Refer the setting parameter table for format of the abnormal frame.

Evaluation criteria

Confirm followings at each setting of patterns 1 throught4:
the EUT does not disengage (timeout of such as token watchdog time does notoccur).

Test
necessity
identified
by the
EUT
class

Class 1

R

Class 2

N

Class 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)EUT(The parameters
vary according
to the class)

Classes 1
and 3Classes 4
and 5Classes 6
and 7

Node number

85

Token watchdog time100

Allowable minimum
frame interval time

10

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1014

IO allocation setting(for class 4)

Optional

Node number

2

Token watchdog time(100)

Allowable minimum
frame interval time(10)

– 127 –JEM 1480:2023

Table 40 – Discard of abnormal frame (TCD) (continued)
Setting parameter(node)(continued)

EUT(The parametervary according
to the class)(continued)

Classes 6
and 7(continued)

Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size

Test equipment(The parameters
vary according
to the EUT
class)Classes 1,
3, 4 and 5

Classes 6
and 7

Setting parameter(test data)

Solicitation frame

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number ofsource side (SNA)TCD
Data size
Contents of data

According to the number of
input points of the slave, theEUT:* 0 point: 0* 1 point or more: 4
To be calculated from thenumber of input points of theslave, the EUT
16
To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
1
200
10
0
256
0
0
3 (Controller)
1
200
10
256
256
0
0
1
65017
16
Slave node number = 16#8002(Flexible setting mode, node
number = 2)
Input data address: According
to the number of input pointsof the slave, the EUT:
* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0004(Area 1, address = 4)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0100(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)

JEM 1480:2023– 128 –

Table 40 – Discard of abnormal frame (TCD) (continued)
Setting parameter(test data)(continued)

Solicitation frame

Contents of data(continued)

Output data size = To be
calculated from the numbers of
input and output points of theslave, the EUT
Input status address = 16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
Lock ID = 1

Abnormal framec)Transmission format of abnormal frame of TCD, TBN
and CBN is as follows:* Pattern 1:
TCD/TBN/CBN = 0/1/1, 65001/1/1, 65000/1/1.
Transmission shall take place in this order.
* Pattern 2:
TCD/TBN/CBN = 65001/1/1, 65012/1/1, 65000/1/1.
Transmission shall take place in this order.
* Pattern 3:
TCD/TBN/CBN = 65002/1/1, 65001/1/1, 65000/1/1,
65000/1/1.
Transmission shall take place in this order.
* Pattern 4:
TCD/TBN/CBN = 65000/1/1 only.

Continuous operation of cyclic transmission

Tables 41 and 42 show test tables for continuous operation of cyclic transmission.
Table 41 – Cyclic transmission echo back (number of nodes: 2)
Test number

V2-035Major test group

Cyclic transmission

Test groupContinuous operation test

Test objects

Cyclic transmission echo back (number of nodes: 2)

Test procedure

Implement cyclic transmission echo back program into the EUT. Specification of the
program is to transfer or copy area 1 and area 2 data of the test equipment to area 1
and area 2 of self node.
The test equipment increments (+ 1) data pattern that is correctly echo backed fromthe EUT.
Start the EUT, then start the test equipment.
Execute tests with settings of three patterns: patterns 1 through 3, respectively.
* Pattern 1: sending/receiving of single cyclic frame.
* Pattern 2: sending of cyclic divided frames* Pattern 3: receiving of cyclic divided frames.

Evaluation criteria

Confirm followings for each of the three patterns, patterns 1 through 3:
Running time for each test pattern shall be ten minutes or more.
The test equipment receive echo back data from the EUT as cyclic data.
The received data sent from the EUT is identical to the data of the source in content
and size for both area 1 and area 2.
Simultaneousness of the received data is guaranteed (echo backed data of area 1 andthat of area 2 are returned at the same timing).

– 129 –JEM 1480:2023

Table 41 – Cyclic transmission echo back (number of nodes: 2) (continued)
Test
necessity
identified
by theEUT class

Class 1

R

Class 2

N

Class 3

R

Class 4

N

Class 5N

Class 6N

Class 7N

Setting parameter(node)

Pattern 1:
Sending /receiving of
single cyclic
frame

EUT

Test
equipment

Pattern 2:
Sending ofdivided cyclic
frames

EUT

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 1 data pattern

Write four words of area 1
address 0 with data of area 1
address 4.

Area 2 data top
address0

Area 2 data size

64

Area 2 data pattern

Write 64 words of area 2
address 0 with data of area 2
address 64.

Node name"TargetNode"

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

4

Area 1 data size

4

Area 1 data pattern

Increment data starting with
16#0000 through 16#0003

Area 2 data top
address

64

Area 2 data size

64

Area 2 data pattern

Increment data starting with
16#0000 through 16#003F

Node name"Tester"

Node number

170

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

508

Area 1 data size

4

Area 1 data pattern

Write four words of area 1
address 508 with data of area
1 address 0

Area 2 data top
address

7168

Area 2 data size

1024

JEM 1480:2023– 130 –

Table 41 – Cyclic transmission echo back (number of nodes: 2) (continued)
Setting parameter(node)(continued)

Pattern 2:
Sending ofdivided cyclic
frames(continued)

EUT(continued)

Test
equipment

Area 2 data pattern

Write 64 words of area 2
address 8128 with data of area
2 address 0

Node name
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 1 data pattern"TargetNode"
3 (Controller)
85
100
10

Area 2 data top
address
Area 2 data size
Area 2 data pattern

Patter 3:
Receiving ofdivided cyclic
frames

EUT

Node name
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 1 data pattern

Area 2 data top
address
Area 2 data size
Area 2 data pattern

Test
equipment

Node name
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 1 data pattern
Area 2 data top
address
Area 2 data size
Area 2 data pattern
Node name04
Increment data starting with
16#0000 through 16#0003
064
Increment data starting with
16#0000 through 16#003F"Tester"
254
(100)
(10)
0
4
Write four words of area 1
address 0 with data of area 1
address 508.
064
Write 64 words of area 2
address 0 with data of area 2
address 8128.
"TargetNode"
3 (Controller)
85
100
10
508
4
Increment data starting with
16#0000 through 16#0003
64
8128
Increment data starting with
16#0000 through 16#003F"Tester"

– 131 –JEM 1480:2023

Table 41 – Cyclic transmission echo back (number of nodes: 2) (continued)
Setting parameter(test data)

NA

Table 42 – Cyclic transmission echo back (number of nodes: 32)
Test number

V2-036

Major test group

Cyclic transmission

Test groupContinuous operation test

Test objects

Cyclic transmission echo back (number of nodes: 32)

Test procedure

Implement cyclic transmission echo back program into the EUT. Specification of the
program is to transfer or copy area 1 and area 2 data of the test equipment to area 1
and area 2 of self node.
The test equipment increments (+ 1) data pattern if both area 1 and area 2 data arecorrectly echo backed from the EUT.
Start the EUT, start the test equipment, then start the dummy node.

Evaluation criteria

Confirm running time for test shall be one hour or more.
Confirm the test equipment receive echo back data from the EUT as cyclic data.
Confirm the received data sent from the EUT is identical to the data of the source incontent and size for both area 1 and area 2.
Confirm simultaneousness of the received data is guaranteed (echo backed data ofarea 1 and that of area 2 are returned at the same timing).

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

N

Class 3

R

Class 4

N

Class 5N

Class 6N

Class 7N

Setting parameter(node)

EUT

Test equipment(continued)

Node number

1

Token watchdog
time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 1 data pattern

Write four words of area 1
address 0 with data of area 1
address 4.

Area 2 data top
address0

Area 2 data size

64

Area 2 data pattern

Write 64 words of area 2
address 0 with data of area 2
address 64.

Node name"TargetNode"

Implementationclass

3 (Controller)

Node number

85

Token watchdog
time

50

JEM 1480:2023– 132 –

Table 42 Cyclic transmission echo back (number of nodes: 32) (continued)
Setting parameter(node)(continued)

Test equipment(continued)

Dummy nodes (30 nodes)(N = 0 through 29)

Setting parameter(test data)

6.6.7

Allowable minimum
frame interval time

10

Area 1 data top
address

4

Area 1 data size

4

Area 1 data pattern

Increment data starting with
16#0000 through 16#0003

Area 2 data top
address

64

Area 2 data size

64

Area 2 data pattern

Increment data starting with
16#0000 through 16#003F

Node name"Tester"

Implementationclass

3 (Controller)

Node number

130 + N (N = 29 : node number= 200)

Token watchdog
time

50

Allowable minimum
frame interval time0

Area 1 data top
address

8 + (4 x N)

Area 1 data size

4

Area 2 data top
address

128 + (64 x N)

Area 2 data size

64

NA

Message transmission (basic operation)

Procedures of message transmission ( basic operation) are as follows:−

Message receiving process shall be confirmed by receiving a request message of network
parameter read.

−

Message transmitting process shall be confirmed by sending a response message of
network parameter read.

−

The confirmation shall be done by the sequence that the test equipment sends the request
message of network parameter read to the EUT, and that the EUT sends the response
massage of network parameter read.

−

Broadcast message transmission shall be directed only to devices with transparent massage
function.

a)Message basic function

Tables 43 through 45 show test tables for message basic function.

– 133 –JEM 1480:2023

Table 43 – No response to peer-to-peer message
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V2-037
Message transmission (basic operation)
Message basic function test
No response to peer-to-peer message
Start the EUT, then Start the test equipment.
The test equipment sends a request message of network parameter read.
The EUT sends a response message of network parameter read. The test equipment
does not send an ACK back to the EUT.
Confirm that the EUT re-send the message three times.
Confirm that the EUT re-send the message no sooner than 100ms and no later than
200ms after the token circulates three times.
R
R
R
R
R
R
R
EUT
Classes 1, 3
Node number
1
(The
and 4
parameter
Token watchdog time
(50)
vary according
Allowable minimum(10)
to the class)frame interval time
Area 1 data top
0
address
Area 1 data size
4
Area 2 data top
0
address
Area 2 data size
64
IO allocation setting
Optional(for class 4)Class 2
Node number
1
Token watchdog time
(50)

Class 5Classes 6
and 7

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time

(10)
0
0
0
0
100
(100)
(10)
256
256
1024
1024
1
(50)
(10)

JEM 1480:2023– 134 –

Table 43 – No response to peer-to-peer message (continued)
Setting parameter(node)(continued)

EUT
(The
parameters
vary according
to the class)

Classes 6
and 7(continued)

Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slave)
IO allocation setting(slave setting)0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64
4 (Flexible master)
85
50
10
According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1
Slave node address =16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input data status = 16#8000(Area 2, address = 0)
Output data status = 16#8400(Area 2, address = 1024)

– 135 –JEM 1480:2023

Table 43 – No response to peer-to-peer message (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary according
to the EUT
class)Class 7

Request message

Response message

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

3 (Controller)
85
50
10
256
4
1024
64
FL-net message
85
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
65 007 (network parameterread request)
0NA
FL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 1008565207 (network parameterread response)
56
Optional (no evaluation)

Table 44 – Peer-to-peer message ACK abnormality
Test number

V2-038Major test group

Message transmission (basic operation)

Test group

Message basic function test

Test objects

Peer-to-peer message ACK abnormality

Test procedure

Start the EUT, then start the test equipment.
The test equipment sends a network parameter read request message.
The test equipment responds to first network parameter read response message withabnormal ACK frame (STS = 16#02).
The test equipment responds to second network parameter read response message
with normal ACK frame (STS = 16#01).

Evaluation criteria

Confirm that the EUT re-transmit the message once.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7RJEM 1480:2023– 136 –

Table 44 – Peer-to-peer message ACK abnormality (continued)
Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number

1

Token watchdog
time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog
time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog
time

(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog
time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

– 137 –JEM 1480:2023

Table 44 – Peer-to-peer message ACK abnormality (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)3 (Controller)
85
50
10
4
4
64
64
4 (Flexible master)
85
50
10
According to the number of
output points of the slave, theEUT:* 0 points: 0* 1 point or more: 256
To be calculated form thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input point of the slave, the EUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address = 16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

JEM 1480:2023– 138 –

Table 44 – Peer-to-peer message ACK abnormality (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 7

Request message

Response message

Implementationclass

3 (Controller)

Node number

85

Token watchdog
time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1024

Area 2 data size

64InterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

65 007 (network parameter readrequest)Data size

0Contents of data

NAInterfaceFL-net message

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)

85

TCD

65207 (network parameter read
response)

Data size

56

Contents of data

Optional (no evaluation)

Abnormal ACK

2 (Buffer full)

Table 45 – Peer-to-peer message availability judgment of requested message
transmission
Test number

V2-039Major test group

Message transmission (basic operation)

Test group

Message basic function test

Test objects

Peer-to-peer message availability judgment of requested message transmission

Test procedure

Evaluation criteria

Start the EUT, then start the test equipment.
The test equipment send network parameter read request messages. The test
equipment prolong network cycle while it continues to transmit the messages.
The EUT sends network parameter read response messages.
Confirm that the EUT stops sending the response message when measured refresh cycle
time exceeds allowable refresh cycle time.

– 139 –JEM 1480:2023

Table 45 – Peer-to-peer message availability judgment of requested message
transmission
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

R
R
R
R
R
R
R
EUT
(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Class 6 and
7Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
4
0
64
Optional
1
(50)
(10)
0
0
0
0
100
(100)
(10)
256
256
1024
1024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUTJEM 1480:2023– 140 –

Table 45 – Peer-to-peer message availability judgment of requested message
transmission
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)3 (Controller)
85
50
10
4
4
64
64
4 (Flexible master)
85
50
10
According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address = 16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

– 141 –JEM 1480:2023

Table 45 – Peer-to-peer message availability judgment of requested message
transmission
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 7

Request message

Response messageb)

Implementationclass

3 (Controller)

Node number

85

Token watchdog
time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1024

Area 2 data size

64InterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

65 007 (network parameter readrequest)Data size

0Contents of data

NAInterfaceFL-net message

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)

85

TCD

65207 (network parameter read
response)

Data size

56

Contents of data

Optional (no evaluation)

Sequence number and version of sequence number (peer-to-peer)

Tables 46 through 51 show test tables for sequence number and version of sequence number.
Table 46 – Setting version of sequence number at message transmission
Test number

V2-040Major test group

Message transmission (basic operation)

Test group

Sequence number and version of sequence number (peer-to-peer) test

Test objects

Setting version of sequence number at message transmission

Test procedure

Evaluation criteria

Start the EUT, then start the test equipment.
Record a version of sequence number of a token frame from the EUT.
The test equipment sends a network parameter read request message.
The EUT sends a network parameter read response message.
Record the version of sequence number of the message.
Confirm that the versions of sequence number of a participation request, of the token andof the message are identical.

JEM 1480:2023– 142 –

Table 46 – Setting version of sequence number at message transmission (continued)
Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1,
3 and 4

Class 2

Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

– 143 –JEM 1480:2023

Table 46 – Setting version of sequence number at message transmission (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)Classes 1,
2, 3, 4 and5Class 6

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

Implementation class4 (Flexible master)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256

Area 1 data size

To be calculated from thenumber of output points of theslave, the EUT

Area 2 data top
address

1024

Area 2 data size

1024

IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address = 16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

JEM 1480:2023– 144 –

Table 46 – Setting version of sequence number at message transmission (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 7

Request message

Response message

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1024

Area 2 data size

64InterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

65 007 (network parameter readrequest)Data size

0Contents of data

NAInterfaceFL-net message

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)

85

TCD

65207 (network parameter read
response)

Data size

56

Contents of data

Optional (no evaluation)

Table 47 – Setting a sequence number at message transmission
Test number

V2-041

Major test group

Message transmission (basic operation)

Test group

Sequence number and version of sequence number (peer-to-peer) test

Test objects

Setting a sequence number at message transmission

Test procedure

Evaluation criteria

Start the EUT, then start the test equipment.
Record a version of sequence number of a token frame from the EUT.
The test equipment sends a network parameter read request message.
The EUT sends a network parameter read response message.
Record the version of sequence number of the message.
The test equipment sends the request messages five times.
Confirm that the EUT increments value of the sequence number at every message
transmission to the test equipment.

– 145 –JEM 1480:2023

Table 47 – Setting a sequence number at message transmission (continued)
Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUTJEM 1480:2023– 146 –

Table 47 – Setting a sequence number at message transmission (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time3 (Controller)
85
50
10
4
4
64
64
4 (Flexible master)
85
50
10
According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
3 (Controller)8550

– 147 –JEM 1480:2023

Table 47 – Setting a sequence number at message transmission (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 7
(continued)

Request message

Response message

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1024

Area 2 data size

64InterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

65 007 (network parameterread request)

Data size

0Contents of data

NAInterfaceFL-net message

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)

85

TCD

65207 (network parameterread response)

Data size

56

Contents of data

Optional (no evaluation)

Table 48 – Version of sequence number abnormality at message transmission
Test number

V2-042Major test group

Message transmission (basic operation)

Test group

Sequence number and version of sequence number (peer-to-peer) test

Test objects

Version of sequence number abnormality at message transmission

Test procedure

Evaluation criteria

Start the EUT, then start the test equipment.
Record a version of sequence number of a token frame from the EUT.
The test equipment sends a network parameter read request message.
The EUT sends a network parameter read response message.
Record the version of sequence number of the message. The test equipment returns
an ACK with version of sequence number abnormality
Record the message transmission sequence.
Confirm that the EUT re-sends the message when it receives the version of sequencenumber abnormality.

JEM 1480:2023– 148 –

Table 48 – Version of sequence number abnormality at message transmission(continued)
Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

– 149 –JEM 1480:2023

Table 48 – Version of sequence number abnormality at message transmission(continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

Implementation class4 (Flexible master)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256

Area 1 data size

To be calculated from thenumber of output points of theslave, the EUT

Area 2 data top
address

1024

Area 2 data size

1024

IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

JEM 1480:2023– 150 –

Table 48 – Version of sequence number abnormality at message transmission(continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 7

Request message

Response message

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1024

Area 2 data size

64InterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

65 007 (network parameterread request)

Data size

0Contents of data

NAInterfaceFL-net message

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)

85

TCD

65207 (network parameterread response)

Data size

56

Contents of data

Optional (no evaluation)

Abnormal ACK

5 (Version of sequencenumber abnormality)

Table 49 – Version of sequence number abnormality at message reception
Test number

V2-043Major test group

Message transmission (basic operation)

Test group

Sequence number and version of sequence number (peer-to-peer) test

Test objects

Version of sequence number abnormality at message reception

Test procedure

Evaluation criteria

Start the EUT, then start the test equipment.
Record a version of sequence number of a token frame from the EUT.
The test equipment sends a network parameter read request message with a versionof sequence number which is different from that of its token.
Record the message transmission sequence.
Confirm that the EUT sends an abnormal ACK (contents of ACK header: STS = 16#05)
when it receives the abnormal message (version of sequence number abnormality).

– 151 –JEM 1480:2023

Table 49 – Version of sequence number abnormality at message reception (continued)
Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT(The
parameters
vary
according to
the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6 and
7Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUTJEM 1480:2023– 152 –

Table 49 – Version of sequence number abnormality at message reception (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary
according to
the EUTclass)Classes 1, 2,
3, 4 and 5

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

3 (Controller)
85
50
10
4
4
64
64
4 (Flexible master)
85
50
10
According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

Implementation class

3 (Controller)

Node number

85

Token watchdog time50

– 153 –JEM 1480:2023

Table 49 – Version of sequence number abnormality at message reception (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary
according to
the EUTclass)(continued)

Class 7
(continued)

Request message

Response message

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1024

Area 2 data size

64InterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

65 007 (network parameterread request)

Data size

0Contents of data

NAInterfaceFL-net message

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)

85

TCD

65207 (network parameterread response)

Data size

56

Contents of data

Optional (no evaluation)

Table 50 – Sequence number duplication at message reception
Test number

V2-044

Major test group

Message transmission (basic operation)

Test group

Sequence number and version of sequence number (peer-to-peer) test

Test objects

Sequence number duplication at message reception

Test procedure

Start the EUT, then start the test equipment.
Record a version of sequence number of a token frame from the EUT.
The test equipment sends a network parameter read request message.
The test equipment sends another network parameter read request message withsequence number same as that of the previous message.
Record the message reception sequence.

Evaluation criteria

Confirm that the EUT sends a normal ACK at each reception of the both messages.
Confirm that the EUT sends a network parameter read response message at receptionof the first message.
Confirm that the EUT does not send any network parameter read response message
at reception of the second message (abnormal message).

JEM 1480:2023– 154 –

Table 50 – Sequence number duplication at message reception (continued)
Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

– 155 –JEM 1480:2023

Table 50 – Sequence number duplication at message reception (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

Implementation class4 (Flexible master)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256

Area 1 data size

To be calculated from thenumber of output points of theslave, the EUT

Area 2 data top
address

1024

Area 2 data size

1024

IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

JEM 1480:2023– 156 –

Table 50 – Sequence number duplication at message reception (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 7

Request message

Response message

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1024

Area 2 data size

64InterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

65 007 (network parameterread request)

Data size

0Contents of data

NAInterfaceFL-net message

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)

85

TCD

65207 (network parameterread response)

Data size

56

Contents of data

Optional (no evaluation)

Table 51 – Sequence number skip at message reception
Test number

V2-045Major test group

Message transmission (basic operation)

Test group

Sequence number and version of sequence number (peer-to-peer) test

Test objects

Sequence number skip at message reception

Test procedure

Start the EUT, then start the test equipment.
Record a version of sequence number of a token frame from the EUT.
The test equipment sends a network parameter read request message.
The test equipment sends another network parameter read request message withsequence number added by 10 to that of the previous message.
Record the message reception sequence.

Evaluation criteria

Confirm that the EUT sends a normal ACK at each reception of the both messages.
Confirm that the EUT sends a network parameter read response message at each
reception of the both messages.

– 157 –JEM 1480:2023

Table 51 – Sequence number skip at message reception (continued)
Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1,
3 and 4

Class 2

Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUTJEM 1480:2023– 158 –

Table 51 – Sequence number skip at message reception (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)Classes 1,
2, 3, 4 and5Class 6

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

Implementation class4 (Flexible master)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256

Area 1 data size

To be calculated from thenumber of output points of theslave, the EUT

Area 2 data top
address

1024

Area 2 data size

1024

IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

– 159 –JEM 1480:2023

Table 51 – Sequence number skip at message reception (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test equipment(The parameters
vary according
to the EUT
class)(continued)

Request message

Response messagec)Class 7

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum frameinterval time

10

Area 1 data top address

256

Area 1 data size

4

Area 2 data top address

1024

Area 2 data size

64InterfaceFL-net message

Node number of sourceside (SNA)

85

Node number ofdestination side (DNA)According to the EUT class:

TCD

65 007 (network parameter readrequest)Data size

0Contents of data

NAInterfaceFL-net message

Node number of sourceside (SNA)

According to the EUT class:

Node number ofdestination side (DNA)

85

TCD

65207 (network parameter read
response)

Data size

56

Contents of data

Optional (no evaluation)* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Sequence number and version of sequence number (broadcast)

Tables 52 and 53 show test tables for the sequence number and version of sequence number(broadcast).
Table 52 – Setting version of sequence number at message transmission
Test number

V2-046

Major test group

Message transmission (basic operation)

Test group

Sequence number and version of sequence number (broadcast) test

Test objects

Setting version of sequence number at message transmission

Test procedure

Start the EUT, then start the test equipment.
Record a version of sequence number of a token frame and that of a message fromthe EUT.
The EUT sends transparent mode messages 10 times.
Content of data at each message is incremented by one from that at the previous
message.

Evaluation criteria

Confirm that the version of sequence number of each of the ten messages sent by the
EUT is the same as that of the token frame.
Confirm that the EUT sends the messages one at a time.

JEM 1480:2023– 160 –

Table 52 – Setting version of sequence number at message transmission (continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

Setting parameter(node)R (No test executed without implementation of transparent mode massage (client
function))
R (No test executed without implementation of transparent mode massage (client
function))
R (No test executed without implementation of transparent mode massage (client
function))
R (No test executed without implementation of transparent mode massage (client
function))
R (No test executed without implementation of transparent mode massage (client
function))
R (No test executed without implementation of transparent mode massage (client
function))
R (No test executed without implementation of transparent mode massage (client
function))
EUT
Classes 1, 3
Node number
1
(The
and 4
Token watchdog time
(50)
parameters
Allowable minimum
(10)
vary
frame interval time
according to
Area 1 data top0
the class)address
Area 1 data size
4
Area 2 data top
0
address
Area 2 data size
64
IO allocation setting
Optional(for class 4)Class 2
Node number
1
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top
0
address
Area 1 data size
0
Area 2 data top
0
address
Area 2 data size
0Class 5
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time
Area 1 data top
256
address
Area 1 data size
256
Area 2 data top
1024
address
Area 2 data size
1024
Classes 6
Node number
1
and 7
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top
0
address
Area 1 data size
To be calculated from thenumber of input points of theslave, the EUT
Area 2 data top
0
address
Area 2 data size
To be calculated from thenumbers of input and output
points of the slave, the EUT

– 161 –JEM 1480:2023

Table 52 – Setting version of sequence number at message transmission (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary
according to
the EUTclass)Classes 1, 2,
3, 4 and 5

Class 6

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

Implementation class4 (Flexible master)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256

Area 1 data size

To be calculated from thenumber of output points of theslave, the EUT

Area 2 data top
address

1024

Area 2 data size

1024

IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = .
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address = 16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

JEM 1480:2023– 162 –

Table 52 – Setting version of sequence number at message transmission (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary
according to
the EUTclass)(continued)

Class 7

Transmission message

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1024

Area 2 data size

64InterfaceFL-net message

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)

255

TCD

10000 (Transparent mode
message)

Data size

512

Contents of data

Incremental data of word unitthat starts with 16#11AA.

Table 53 – Setting sequence number at message transmission
Test number

V2-047

Major test group

Message transmission (basic operation)

Test group

Sequence number and version of sequence number (broadcast) test

Test objects

Setting sequence number at message transmission

Test procedure

Start the EUT, then start the test equipment.
Record a version of sequence number of a token frame and that of a message fromthe EUT.
The EUT sends a peer-to-peer transparent mode message.
The EUT sends a broadcast transparent mode messages.
The EUT sends the messages 10 times in total (five times for peer-to-peer message
and five times for broadcast one alternately).

Evaluation criteria

Confirm that the EUT increments the sequence number for broadcast messages.
Confirm that the EUT does not re-send any broadcast message.

Test
necessity
identified
by theEUT class

Class 1

R (No test executed without implementation of transparent mode massage (client
function))

Class 2R (No test executed without implementation of transparent mode massage (client
function))

Class 3R (No test executed without implementation of transparent mode massage (client
function))

Class 4R (No test executed without implementation of transparent mode massage (client
function))

Class 5R (No test executed without implementation of transparent mode massage (client
function))

Class 6R (No test executed without implementation of transparent mode massage (client
function))

Class 7R (No test executed without implementation of transparent mode massage (client
function))– 163 –JEM 1480:2023

Table 53 – Setting sequence number at message transmission (continued)
Setting parameter(node)

EUT(The
parameters
vary
according to
the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary
according to
the EUTclass)Classes 1, 2,
3, 4 and 5

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
4
0
64
Optional
1
(50)
(10)
0
0
0
0
100
(100)
(10)
256
256
1024
1024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64

JEM 1480:2023– 164 –

Table 53 – Setting sequence number at message transmission (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary
according to
the EUTclass)(continued)

Class 6

Implementation class4 (Flexible master)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256

Area 1 data size

To be calculated from thenumber of output points of theslave, the EUT

Area 2 data top
address

1024

Area 2 data size

1024

IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address = 16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

Class 7

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1024

Area 2 data size64

– 165 –JEM 1480:2023

Table 53 – Setting sequence number at message transmission (continued)
Setting parameter(test data)

Transmission message 1(broadcast)

Transmission message 2(peer-to-peer)d)InterfaceFL-net message

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)

255

TCD

10000 (Transparent mode
message)

Data size

512

Contents of data

Incremental data of word unitthat starts with 16#11AA.

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)

85

TCD

20000 (Transparent mode
message)

Data size

0Contents of data

NA

Abnormal operation test

Table 54 shows test table for abnormal operation.
Table 54 – Discard of abnormal frame (TCD)
Test number

V2-048Major test group

Message transmission (basic operation)

Test group

Abnormal operation test

Test objects

Discard of abnormal frame (TCD)

Test procedure

Start the EUT, then start the test equipment.
The test equipment transmits abnormal TCD frames with settings of the pattern 1
through 3.
The test equipment transmits a network parameter read request message.

Evaluation criteria

Confirm followings for the settings of the pattern 1 through 3.
The EUT does not respond.
The EUT send a response message to the network parameter read request message
the test equipment transmits.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7RJEM 1480:2023– 166 –

Table 54 – Discard of abnormal frame (TCD) (continued)
Setting parameter(node)

EUT(The
parameters
vary
according to
the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary
according to
the EUTclass)Classes 1, 2,
3, 4 and 5

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
4
0
64
Optional
1
(50)
(10)
0
0
0
0
100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64

– 167 –JEM 1480:2023

Table 54 – Discard of abnormal frame (TCD) (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary
according to
the EUTclass)(continued)

Class 6

Implementation class4 (Flexible master)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256

Area 1 data size

To be calculated from thenumber of output points of theslave, the EUT

Area 2 data top
address

1 024

Area 2 data size

1 024

IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address = 16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1 024)

Class 7

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1 024

Area 2 data size

64

JEM 1480:2023– 168 –

Table 54 – Discard of abnormal frame (TCD) (continued)
Setting parameter(test data)

Pattern 1

Pattern 2

Pattern 3

Network parameter readrequest message

6.6.8
a)

InterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

60 000

Data size

0Contents of data

NAInterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

62000

Data size

0Contents of data

NAInterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

65 000

Data size

0Contents of data

NAInterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

65 007 (network parameter readrequest)Data size

0Contents of data

NA

Message transmission (server function)peer-to-peer message operation (server function)

Tables 55 through 64 show test tables for peer -to-peer message operation (server function).

– 169 –JEM 1480:2023

Table 55 – Byte block read, byte block write
Test number

V2-049Major test group

Message transmission (server function)

Test group

Peer-to-peer message operation test (server function)

Test objects

Byte block read, byte block write

Test procedure

Start the EUT, then start the test equipment.
The test equipment transmits a byte block write request.
The test equipment transmits a byte block read request after the EUT responds thebyte block write.
Use incremental (+ 1) words starting with 16#11AA as data for the byte block write.

Evaluation criteria

Confirm that the EUT transmits byte block write response message to the byte block
write request from the test equipment.
Confirm that the EUT transmits byte block read response message to the byte block
read request from the test equipment.
Confirm that contents of data set by the request message are identical to thosereceived by the response message. If the EUT does not support the message function
applied for the test data, confirm that not-implemented ACK (M_RLT = 2) istransmitted

Test
necessity
identified
by the EUT
class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT(The
parameters
vary
according to
the class)

Classes 1, 3
and 4

Class 2

Node number

1

Token watchdog
time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog
time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

JEM 1480:2023– 170 –

Table 55 Byte block read, byte block write (continued)
Setting parameter(node)(continued)

EUT
(The
parameters
vary
according to
the class)(continued)

Class 5Classes 6 and7Testequipment(Theparameters
vary
according to
the EUTclass)Classes 1, 2,
3, 4 and 5

Class 6

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

Implementation class4 (Flexible master)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

According to the number of
output points of the slave,
the EUT:* 0 point: 0* 1 point or more: 256

Area 1 data size

To be calculated from thenumber of output points ofthe slave, the EUT

Area 2 data top
address

1 024

Area 2 data size

1 024

IO allocation setting(number of control
slaves)1

– 171 –JEM 1480:2023

Table 55 – Byte block read, byte block write (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary
according to
the EUTclass)(continued)

Class 6
(continued)

IO allocation setting(slave setting)Slave node number =16#8001(Flexible setting mode, node
number = 1)
Input data address =16#0000(Area 1, address = 0)

IO allocation setting(slave setting)(continued)

Input data size = To be
calculated from the numberof input points of the slave,
the EUT.
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of the slave,
the EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1 024)

Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

3 (Controller)
85
50
10
256
4
1 024
64

JEM 1480:2023– 172 –

Table 55 – Byte block read, byte block write (continued)
Setting parameter(test data)

Byte block
write

Transmission
message

Interface
Node number of sourceside (SNA)
Node number ofdestination side (DNA)TCD
Data size
Virtual address

Virtual size

Contents of data
Reception
message

Interface
Node number of sourceside (SNA)

Node number ofdestination side (DNA)TCD
Type of response
message (M_RLT)

FL-net message
85
According to the EUT class:* Classes 1, 2, 3, 4, 6 and
7: 1* Class 5: 100
65 004 (Byte block write
request)Equal to the virtual size
Depending EUT
specification (Input from theconformance tool display)
Depending EUT
specification (Input with theconformance tool display)
Incremental word data
starting with 16#11AA
FL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and
7: 1* Class 5: 100
85
65 204 (Byte block write
response)
0 (normal) or
2 (not-implemented)

– 173 –JEM 1480:2023

Table 55 – Byte block read, byte block write (continued)
Setting parameter(test data)(continued)

Byte block
write(continued)

Byte block
read

Reception
message(continued)

Transmission
message

Reception
message

Setting parameter(test data)(continued)

Byte block
read(continued)

Reception
message(continued)

Data size (in case of
M_RLT = 0)0Virtual address

Depending on the EUT
specification (same value as
the virtual address of write
request)Virtual size

Depending on the EUT
specification (same value as
the virtual size of write
request)Contents of data(in case of M_RLT = 0)

NAInterfaceFL-net message

Node number of sourceside (SNA)

85

Node number ofdestination side (DNA)According to the EUT class:* Classes 1, 2, 3, 4, 6 and
7: 1* Class 5: 100

TCD

65 003 (byte block readrequest)Data size

0

Virtual address

Depending on the EUT
specification (same value as
the virtual address of write
request)Virtual size

Depending on the EUT
specification (same value as
the virtual size of write
request)Contents of data

NAInterfaceFL-net message

Node number of sourceside (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and
7: 1* Class 5: 100

Node number ofdestination side (DNA)

85

TCD

65 203 (byte block read
response)

Type of response
message (M_RLT)

0 (normal) or
2 (not-implemented)

Data size(In case of M_RLT = 0)

Depending on the EUT
specification (same value as
the virtual size)

Virtual address

Depending on the EUT
specification (same value as
the virtual address of readrequest)Virtual size

Depending on the EUT
specification (same value as
the virtual size of readrequest)Contents of data
(In case of M_RLT = 0)

Incremental word data
starting with 16#11AA

JEM 1480:2023– 174 –

Table 56 – Word block read, word block write
Test number

V2-050Major test group

Message transmission (server function)

Test group

Peer-to-peer message operation test (server function)

Test objects

Word block read, word block write

Test procedure

Start the EUT, then start the test equipment.
The test equipment transmits a word block write request.
The test equipment transmits a word block read request after the EUT responds theword block write.
Use incremental (+ 1) words starting with 16#11AA as data for the word block write.

Evaluation criteria

Confirm that the EUT transmits a word block write response message to the word
block write request from the test equipment.
Confirm that the EUT transmits a word block read response message to the word block
read request from the test equipment.
Confirm that contents of data set by the request message are identical to thosereceived by the response message. If the EUT does not support the message function
applied for the test data, confirm that not-implemented ACK (M_RLT = 2) is transmitted

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT(The
parameters
vary
according to
the class)

Classes 1, 3
and 4

Class 2

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size0

– 175 –JEM 1480:2023

Table 56 – Word block read, word block write (continued)
Setting parameter(node)(continued)

EUT
(The
parameters
vary
according to
the class)(continued)

Class 5Classes 6 and
7Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary
according to
the EUTclass)Classes 1, 2,
3, 4 and 5

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64
4 (Flexible master)
85
50
10
According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1 024
1 024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)

JEM 1480:2023– 176 –

Table 56 – Word block read, word block write (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary
according to
the EUTclass)(continued)

Class 6
(continued)

Word block
write

Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address = 16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1 024)

Class 7

Setting parameter(test data)

IO allocation setting(slave setting)(continued)

Transmission
message

Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Virtual address

Virtual size

Contents of data
Reception
message

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD

3 (Controller)
85
50
10
256
4
1 024
64
FL-net message
85
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
65 006 (Word block write
request)Virtual size x2
Depending EUT specification(Input from the conformance tool
display)
Depending EUT specification(Input with the conformance tool
display)
Incremental word data startingwith 16#11AA
FL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

65 206 (Word block write
response)

– 177 –JEM 1480:2023

Table 56 – Word block read, word block write (continued)
Setting parameter(test data)(continued)

Word block
write(continued)

Word block
read

Reception
message(continued)

Transmission
message

Reception
messageType of response
message (M_RLT)

0 (normal) or
2 (not-implemented)

Data size (in caseof M_RLT = 0)0Virtual address

Depending on the EUT
specification (same value as thevirtual address of write request)

Virtual size

Depending on the EUT
specification (same value as thevirtual size of write request)

Contents of data(in case of M_RLT =0)NAInterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

65 005 (word block readrequest)Data size

0

Virtual address

Depending on the EUT
specification (same value as thevirtual address of write request)

Virtual size

Depending on the EUT
specification (same value as thevirtual size of write request)

Contents of data

NAInterfaceFL-net message

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)

85

TCD

65 205 (word block read
response)

Type of response
message (M_RLT)

0 (normal) or
2 (not-implemented)

Data size(In case of M_RLT= 0)

Depending on the EUT
specification (same value as thevirtual size)

Virtual address

Depending on the EUT
specification (same value as thevirtual address of read request)

Virtual size

Depending on the EUT
specification (same value as thevirtual size of read request)

Contents of data
(In case of M_RLT= 0)

Incremental word data startingwith 16#11AA

JEM 1480:2023– 178 –

Table 57 – Network parameter read
Test number

V2-051

Major test group

Message transmission (server function)

Test group

Peer-to-peer message operation test (server function)

Test objects

Network parameter read

Test procedure

Start the EUT, then start the test equipment.
The test equipment transmits a network parameter request.

Evaluation criteria

Confirm that the EUT transmits a response message to the request message from thetest equipment.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT(The
parameters
vary
according to
the class)

Classes 1, 3
and 4

Class 2

Class 5

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

Node name"TargetNode"IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node name"TargetNode"

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1 024

Area 2 data size

1 024

Node name"TargetNode"– 179 –JEM 1480:2023

Table 57 – Network parameter read (continued)
Setting parameter(node)(continued)

EUT
(The
parameters
vary
according to
the class)(continued)

Classes 6 and
7Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary
according to
the EUTclass)Classes 1, 2,
3, 4 and 5

Class 6

Node name
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT"TargetNode"
3 (Controller)
85
50
10
4
4
64
64
4 (Flexible master)
85
50
10
According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)

JEM 1480:2023– 180 –

Table 57 – Network parameter read (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary
according to
the EUTclass)(continued)

Class 6
(continued)

Output data size = To be
calculated from the number of
output points of the slave, the
EUT

Input status address = 16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1 024)
Class 7

Setting parameter(test data)

IO allocation setting(slave setting)(continued)

Transmission message

Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

Reception message

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)
Data size(In case of M_RLT= 0)Contents of data
(In case of M_RLT= 0)

3 (Controller)
85
50
10
256
4
1 024
64
FL-net message
85
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
65 007 (Network parameter readrequest)0NAFL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

65 207 (Network parameter read
response)
0 (normal)
56

Node name = "TargetNode"
Vendor code = Depending on
the EUT specification (Testexecuter confirms)
Manufacturer model name =Depending on the EUT
specification (Test executerconfirms)

– 181 –JEM 1480:2023

Table 57 – Network parameter read (continued)
Setting parameter(test data)(continued)

Reception message(continued)

Contents of data
(In case of M_RLT= 0)(continued)

Area 1 data top address =According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 0
* Class 5: 256
Area 1 data size = According to
the EUT class:* Classes 1, 3 and 4: 4
* Class 2: 0
* Class 5: 256* Classes 6 and 7: To be
calculated number of input
points of the slave, the EUT:
Area 2 data top address =According to the EUT class:* Classes 1, 2, 3 and 4: 0
* Classes 5, 6 and 7: 1 024
Area 2 data size = According to
the EUT class:* Classes 1, 3 and 4: 64* Class 2: 0
* Classes 5, 6 and 7: 1 024
Token watchdog time = (Noevaluation)
Allowable minimum frameinterval time = (No evaluation)
Link status = (No evaluation)
Protocol type = 128
Upper layer status = (Noevaluation)
Allowable refresh cycle time =(No evaluation)
Measured refresh cycle time(current) = (No evaluation)
Measured refresh cycle time
(maximum) = (No evaluation)
Measured refresh cycle time(minimum) = (No evaluation)

Table 58 Network parameter write
Test number

V2-052Major test group

Message transmission (server function)

Test group

Peer-to-peer message operation test (server function)

Test objects

Network parameter write

Test procedure

Start the EUT, start the test equipment, then start the dummy node.
The test equipment transmits a network parameter write request.
In case of class 2, 5, 6 or 7, the test equipment transmits a network parameter readrequest.

JEM 1480:2023– 182 –

Table 58 Network parameter write (continued)
Evaluation criteria

Confirm that the EUT transmits a response message to the network parameter readrequest from the test equipment.
Decision criteria varies according to the EUT class:* Classes 1, 3 and 4: Confirm that the EUT re-joins the network no later than 3s after an
ACK to the network parameter write response.
* Classes 2, 5 6 and 7: Confirm that the EUT transmits a response message to the
network parameter read request form the test equipment.
Decision criteria varies according to the EUT class:* Classes 1, 3 and 4: Confirm that contents of token header after the rejoin are identicalto the contents of data set by the network parameter write request message (C_AD1,
C_SZ1, C_AD2, C_SZ2 and node name).
* Classes 2, 5, 6 and 7: Confirm that contents of data in the network parameter read
response message are identical to those set by the network parameter write request
message (node name).
In case that the EUT does not support network parameter write request message fromthe test equipment, confirm that the EUT transmits not-implemented response (TCD =65 208, M_RLT = 2).

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)EUT(The parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size0

– 183 –JEM 1480:2023

Table 58 – Network parameter write (continued)
Setting parameter(node)(continued)

EUT(The parameters
vary according
to the class)(continued)

Class 5Classes 6 and7

Test equipment(The parameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1 024

Area 2 data size

1 024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points ofthe slave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input andoutput points of the slave,
the EUT

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

Implementation class4 (Flexible master)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

According to the number of
output points of the slave,
the EUT:* 0 point: 0* 1 point or more: 256

Area 1 data size

To be calculated from thenumber of output points ofthe slave, the EUT

Area 2 data top
address

1 024

Area 2 data size

1 024

IO allocation setting(number of control
slaves)1

JEM 1480:2023– 184 –

Table 58 – Network parameter write (continued)
Setting parameter(node)(continued)

Test equipment(The parameters
vary according
to the EUT
class)(continued)

Class 6
(continued)

IO allocation setting(slave setting)Slave node number =16#8001(Flexible setting mode,
node number = 1)
Input data address =16#0000(Area 1, address = 0)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT.
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of theslave, the EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

Class 7

Dummy node

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1024

Area 2 data size

64

Implementation class

3 (Controller)

Node number

2

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size0

– 185 –JEM 1480:2023

Table 58 – Network parameter write (continued)
Setting parameter(test data)

Networkparameter write

Transmission
message

InterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT
class:* Classes 1, 2, 3, 4, 6 and
7: 1* Class 5: 100

TCD

65 008 (Network parameter
write request)

Data size

20

Contents of data

Setting parameter flag =According to the EUT
class:* Classes 1, 3 and 4: 3
* Classes 2, 5, 6 and 7: 2
Area 1 data top address =8
Area 1 data size = 8
Ares 2 data top address =128
Area 2 data size = 32
Node name ="TargetNode"

Reception
message

InterfaceFL-net message

Node number ofsource side (SNA)

According to the EUT
class:* Classes 1, 2, 3, 4, 6 and
7: 1* Class 5: 100

Node number ofdestination side
(DNA)

85

TCD

65 208 (Network parameter
write response)Type of response
message (M_RLT)

0 (normal) or 2(notimplemented)

Data size(In case of M_RLT =0)0Contents of data(in case of M_RLT =0)NAJEM 1480:2023– 186 –

Table 58 – Network parameter write (continued)
Setting parameter(test data)(continued)

Networkparameter readTransmission
message

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

Reception
message

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(In case of M_RLT= 0)Contents of data
(In case of M_RLT= 0)

FL-net message
85
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
65 007 (Network parameterread request)
0NA
FL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

65 207 (Network parameterread response)
0 (normal)

56

Node name = "TargetNode"
Vendor code = Depending on
the EUT specification (Testexecuter confirms)
Manufacturer model name =Depending on the EUT
specification (Test executerconfirms)
Area 1 data top address =According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 0
* Class 5: 256
Area 1 data size = According
to the EUT class:* Classes 1, 3 and 4: 4
* Class 2: 0
* Class 5: 256* Classes 6 and 7: To be
calculated number of input
points of the slave, the EUT:
Area 2 data top address =According to the EUT class:* Classes 1, 2, 3 and 4: 0
* Classes 5, 6 and 7: 1024
Area 2 data size = According
to the EUT class:* Classes 1, 3 and 4: 64* Class 2: 0
* Classes 5, 6 and 7: 1024
Token watchdog time = (Noevaluation)
Allowable minimum frameinterval time = (No evaluation)
Link status = (No evaluation)

– 187 –JEM 1480:2023

Table 58 – Network parameter write (continued)
Setting parameter(test data)(continued)

Networkparameter read(continued)

Reception
message(continued)

Contents of data
(In case of M_RLT =0)(continued)

Protocol type = 128
Upper layer status = (Noevaluation)
Allowable refresh cycle
time = (No evaluation)
Measured refresh cycle
time (current) = (Noevaluation)
Measured refresh cycle
time (maximum) = (Noevaluation)
Measured refresh cycle
time (minimum) = (Noevaluation)

Table 59 – Operation command, stop command
Test number

V2-053Major test group

Message transmission (server function)

Test group

Peer-to-peer message operation test (server function)

Test objects

Operation command, stop command

Test procedure

Start the EUT, then start the test equipment.
The test equipment transmits a stop command request.
The test equipment transmits an operation command request.
After the EUT becomes operation status, the test equipment transmits a stop
command request.

Evaluation criteria

Confirm that the EUT transmits a response message to each of the request massages
from the test equipment.
Confirm that the EUT becomes operation status (USL (upper layer status) RUN flag ="1") on the operation command request.
Confirm that the EUT becomes stop status (ULS (upper layer status) RUN flag = "0")on the stop command request.
If the message from the test equipment is not implemented at the EUT, confirm that
the EUT transmits a not-implemented response (M_RLT = 2).

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7RJEM 1480:2023– 188 –

Table 59 – Operation command, stop command (continued)
Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6 and7Testequipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points ofthe slave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input andoutput points of the slave,
the EUT

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

4

Area 1 data size4

– 189 –JEM 1480:2023

Table 59 – Operation command, stop command (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Classes 1, 2,
3, 4 and 5
Class 6

Area 2 data top
address

64

Area 2 data size

64

Implementation class4 (Flexible master)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

According to the number of
output points of the slave,
the EUT:* 0 point: 0* 1 point or more: 256

Area 1 data size

To be calculated from thenumber of output points ofthe slave, the EUT

Area 2 data top
address

1 024

Area 2 data size

1 024

IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number =16#8001(Flexible setting mode,
node number = 1)
Input data address =16#0000(Area 1, address = 0)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT.
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of theslave, the EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1 024)

Class 7

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address256

JEM 1480:2023– 190 –

Table 59 – Operation command, stop command (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 7

OperationcommandTransmission
message

Reception
messageStopcommandTransmission
message

Reception
message

Area 1 data size

4

Area 2 data top
address

1 024

Area 2 data size

64InterfaceFL-net message

Node number of sourceside (SNA)

85

Node number ofdestination side (DNA)According to the EUT
class:* Classes 1, 2, 3, 4, 6 and
7: 1* Class 5: 100

TCD

65 010 (operationcommand request)

Data size

0Contents of data

NAInterfaceFL-net message

Node number of sourceside (SNA)

According to the EUT
class:* Classes 1, 2, 3, 4, 6 and
7: 1* Class 5: 100

Node number ofdestination side (DNA)

85

TCD

65 210 (stop command
response)

Type of response
message (M_RLT)

0 (normal) or 2(notimplemented)

Data size(In case of M_RLT = 0)0Contents of data(in case of M_RLT = 0)

NAInterfaceFL-net message

Node number of sourceside (SNA)

85

Node number ofdestination side (DNA)According to the EUT
class:* Classes 1, 2, 3, 4, 6 and
7: 1* Class 5: 100

TCD

65 009 (operationcommand request)

Data size

0Contents of data

NAInterfaceFL-net message

Node number of sourceside (SNA)

According to the EUT
class:* Classes 1, 2, 3, 4, 6 and
7: 1* Class 5: 100

Node number ofdestination side (DNA)85

– 191 –JEM 1480:2023

Table 59 – Operation command, stop command (continued)
Setting parameter(test data)(continued)

Stopcommand(continued)

Reception
message(continued)

TCD

65 209 (stop command
response)

Type of response
message (M_RLT)

0 (normal) or 2(notimplemented)

Data size(In case of M_RLT = 0)0Contents of data(in case of M_RLT = 0)

NAJEM 1480:2023– 192 –

Table 60 – Profile read
Test number

V2-054

Major test group

Message transmission (server function)

Test group

Peer-to-peer message operation test (server function)

Test objects

Profile read

Test procedure

Start the EUT, then start the test equipment.
The test equipment transmits a profile read request.

Evaluation criteria

Confirm that the EUT transmits a response message to the request massage from thetest equipment.
Confirm that the contents of data received as the response message are identical to
the settings of the EUT.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time(10)

– 193 –JEM 1480:2023

Table 60 – Profile read (continued)
Setting parameter(node)(continued)

EUT
(The
parameters
vary according
to the class)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)Classes 6
and 7

Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Classes 1, 2,
3, 4 and 5

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64
4 (Flexible master)
85
50
10
According to the number of
output points of the slave,
the EUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points ofthe slave, the EUT
1024
1024
1

Slave node number =16#8001(Flexible setting mode, node
number = 1)
Input data address =16#0000(Area 1, address = 0)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT.
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)

JEM 1480:2023– 194 –

Table 60 – Profile read (continued)

Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 6
(continued)

Output data size = To be
calculated from the numberof output points of the slave,
the EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1 024)

Class 7

Setting parameter(test data)

IO allocation setting(slave setting)(continued)

Transmission message

Reception message

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1 024

Area 2 data size

64InterfaceFL-net message

Node number of sourceside (SNA)

85

Node number ofdestination side (DNA)According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7:
1* Class 5: 100

TCD

65 011 (profile read request)

Data size

0Contents of data

NAInterfaceFL-net message

Node number of sourceside (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7:
1* Class 5: 100

Node number ofdestination side (DNA)

85

TCD

65 211 (profile read
response)

Type of response
message (M_RLT)

0 (normal)

Data size(In case of M_RLT = 0)

Depending on the EUT
specification

Contents of data

Depending on the EUT
specification(Test executer confirms)

– 195 –JEM 1480:2023

Table 61 – Log data read
Test number

V2-055Major test group

Message transmission (server function)

Test group

Peer-to-peer message operation test (server function)

Test objects

Log data read

Test procedure

Start the EUT, then start the test equipment.
The test equipment transmits a log data request.

Evaluation criteria

Confirm that the EUT transmits a response message to the request massage.
If the log data in the EUT can be display onto such a device as a peripheral, confirm
that the contents of data received by the response message are correct.

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

R
R
R
R
R
R
R
EUT
(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address

1
(50)
(10)
0
4
0
64
Optional
1
(50)
(10)
0
0
0
0
100
(100)
(10)
256
256
1024
1024
1
(50)
(10)
0

JEM 1480:2023– 196 –

Table 61 – Log data read (continued)
Setting parameter(node)(continued)

EUT
(The
parameters
vary according
to the class)(continued)

Classes 6
and 7

Area 1 data size

Area 2 data top
address
Area 2 data size

Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64
4 (Flexible master)
85
50
10
According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1 024
1 024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)

– 197 –JEM 1480:2023

Table 61 – Log data read (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 6
(continued)

IO allocation setting(slave setting)(continued)

Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address = 16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1 024)

Class 7

Setting parameter(test data)

Transmission message

Reception message

Implementationclass

3 (Controller)

Node number

85

Token watchdog
time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1 024

Area 2 data size

64InterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

65 013 (log data read request)

Data size

0Contents of data

NAInterfaceFL-net message

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)

85

TCD

65 213 (log data read response)Type of response
message (M_RLT)

0 (normal)

Data size(In case of M_RLT
= 0)

512

JEM 1480:2023– 198 –

Table 61 – Log data read (continued)
Setting parameter(test data)(continued)

Reception message(continued)

Contents of data(continued)

Depending on the EUT
specification(Test executer confirms)

Table 62 – Log data clear
Test number

V2-055Major test group

Message transmission (server function)

Test group

Peer-to-peer message operation test (server function)

Test objects

Log data clear

Test procedure

Start the EUT, then start the test equipment.
The test equipment transmits a log data clear request.
The test equipment transmits a log data read request after the EUT transmits a log
data clear response.

Evaluation criteria

Confirm that the EUT transmits a response message to the request massage from thetest equipment.
After the test equipment transmits the log data read request, confirm that the contentsof data received as the response message: number of joining in the log data is set to
"0".

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

– 199 –JEM 1480:2023

Table 62 – Log data clear (continued)
Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1 024

Area 2 data size

1 024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUTJEM 1480:2023– 200 –

Table 62 – Log data clear (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

Implementation class4 (Flexible master)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

According to the number of
output points of the slave,
the EUT:* 0 point: 0* 1 point or more: 256

Area 1 data size

To be calculated from thenumber of output points ofthe slave, the EUT

Area 2 data top
address

1 024

Area 2 data size

1 024

IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number =16#8001(Flexible setting mode, node
number = 1)
Input data address =16#0000(Area 1, address = 0)
Input data size = To be
calculated from the numberof input points of the slave,
the EUT.
Output data address =According to the number of
output points of the slave,
the EUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the numberof output points of the slave,
the EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

– 201 –JEM 1480:2023

Table 62 – Log data clear (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Log data clear

Class 7

Transmissio
n message

Reception
messageLog data readTransmissio
n message

Reception
message

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1 024

Area 2 data size

64InterfaceFL-net message

Node number of sourceside (SNA)

85

Node number ofdestination side (DNA)According to the EUT class:* Classes 1, 2, 3, 4, 6 and
7: 1* Class 5: 100

TCD

65 014 (log data clear
request)Data size

0Contents of data

NAInterfaceFL-net message

Node number of sourceside (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and
7: 1* Class 5: 100

Node number ofdestination side (DNA)

85

TCD

65 214 (log data clear
response)

Type of response
message (M_RLT)

0 (normal)

Data size(In case of M_RLT = 0)0Contents of data

NAInterfaceFL-net message

Node number of sourceside (SNA)

85

Node number ofdestination side (DNA)According to the EUT class:* Classes 1, 2, 3, 4, 6 and
7: 1* Class 5: 100

TCD

65 013 (log data readrequest)Data size

0Contents of data

NAInterfaceFL-net message

Node number of sourceside (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and
7: 1* Class 5: 100

Node number ofdestination side (DNA)85

JEM 1480:2023– 202 –

Table 62 – Log data clear (continued)
Setting parameter(test data)(continued)

Log data read(continued)

Reception
message(continued)

TCD

65 213 (log data read
response)

Type of response
message (M_RLT)

0 (normal)

Data size(In case of M_RLT = 0)512

Contents of data

Number of joining = 0

Table 63 – Message echo back
Test number

V2-057

Major test group

Message transmission (server function)

Test group

Peer-to-peer message operation test (server function)

Test objects

Message echo back

Test procedure

Start the EUT, then start the test equipment.
The test equipment transmits a message echo back request.
Use word incremental (+ 1) data starting with 16#11AA for the data in the transmission
message.

Evaluation criteria

Confirm that the EUT transmits a response message to the request massage from thetest equipment.
Confirm that the contents of data set in the request message and those received in the
response massage are identical.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size0

– 203 –JEM 1480:2023

Table 63 – Message echo back (continued)
Setting parameter(node)(continued)

EUT
(The
parameters
vary according
to the class)(continued)

Class 5Classes 6
and 7

Test
equipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1 024

Area 2 data size

1 024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

Implementation class4 (Flexible master)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

According to the number of
output points of the slave,
the EUT:* 0 point: 0* 1 point or more: 256

Area 1 data size

To be calculated from thenumber of output points ofthe slave, the EUT

Area 2 data top
address

1 024

Area 2 data size

1 024

IO allocation setting(number of control
slaves)1

JEM 1480:2023– 204 –

Table 63 – Message echo back (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 6
(continued)

IO allocation setting(slave setting)Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)

IO allocation setting(slave setting)(continued)

Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

Class 7

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1024

Area 2 data size64

– 205 –JEM 1480:2023

Table 63 – Message echo back (continued)
Setting parameter(test data)

Transmission message

Reception message

InterfaceFL-net message

Node number of sourceside (SNA)

85

Node number ofdestination side (DNA)According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

65 015 (message echo backrequest)Data size

512

Contents of data

Word incremental data startingwith 16#11AA

InterfaceFL-net message

Node number of sourceside (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side (DNA)

85

TCD

65 215 (message echo backresponse)

Type of response
message (M_RLT)

0 (normal)

Data size(In case of M_RLT = 0)512

Contents of data

Word incremental data startingwith 16#11AA

JEM 1480:2023– 206 –

Table 64 – Transparent mode message
Test number

V2-058Major test group

Message transmission (server function)

Test group

Peer-to-peer message operation test (server function)

Test objects

Transparent mode message

Test procedure

Start the EUT, then start the test equipment.
The test equipment transmits a transparent mode message.
Use word incremental (+ 1) data starting with 16#11AA for the data in the transmission
message.

Evaluation criteria

Confirm that the EUT transmits an ACK back to the test equipment.
If the transparent mode message (server function) is implemented, confirm that thereceived data by the EUT is incremented.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5

Node number

1

Token watchdog
time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog
time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog
time

(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1 024

Area 2 data size

1 024

– 207 –JEM 1480:2023

Table 64 Transparent mode message (continued)
Setting parameter(node)(continued)

EUT
(The
parameters
vary according
to the class)(continued)

Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64
4 (Flexible master)
85
50
10
According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1 024
1 024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)

JEM 1480:2023– 208 –

Table 64 – Transparent mode message (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 6
(continued)

IO allocation setting(slave setting)(continued)

Class 7

Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD

Transmission message

Data size
Contents of datab)

Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address = 16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
3 (Controller)
85
50
10
256
4
1024
64
FL-net message
85
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
59 999 (transparent mode
message)1024
Word incremental data startingwith 16#11AA

Broadcast message operation (server function)

Tables 65 and 66 show test tables for broadcast message operation (server function).
Table 65 – Log data clear
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

V2-059Message transmission (server function)
Broadcast message operation test
Log data clear
Start the EUT, then start the test equipment.
The test equipment transmits a log data clear request.
The test equipment transmits a log data read request.
Confirm that the EUT does not send any response message to the request massage
from the test equipment.
Confirm that a number of joining obtained from the log data read response is set to "0".
R
R
R
R
R
R
R

– 209 –JEM 1480:2023

Table 65 – Log data clear (continued)
Setting parameter(node)

EUT(The
parameters
vary
according to
the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6 and
7Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary
according to
the EUTclass)Classes 1, 2,
3, 4 and 5

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
4
0
64
Optional
1
(50)
(10)
0
0
0
0
100
(100)
(10)
256
256
1024
1024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64

JEM 1480:2023– 210 –

Table 65 – Log data clear (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary
according to
the EUTclass)(continued)

Class 6

Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

4 (Flexible master)
85
50
10
According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address = 16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
3 (Controller)
85
50
10
256
4
1024
64

– 211 –JEM 1480:2023

Table 65 – Log data clear (continued)
Setting parameter(test data)

Log data
clear

Log data
readTransmission
messageTransmission
message

Reception
message

InterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side
(DNA)

255

TCD

65 014 (log data clear request)

Data size

0Contents of data

NAInterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

65 013 (log data read request)

Data size

0Contents of data

NAInterfaceFL-net message

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)

85

TCD

65 213 (log data read response)Type of response
message (M_RLT)

0 (normal)

Data size(In case of M_RLT
= 0)

512

Contents of data

Number of joining = 0

Table 66 – Transparent mode message
Test number

V2-060Major test group

Message transmission (server function)

Test group

Broadcast message operation test

Test objects

Transparent mode message

Test procedure

Start the EUT, then start the test equipment.
The test equipment transmits a transparent mode message.
Use word incremental data starting with 16#11AA for the contents of transmission
data.

Evaluation criteria

Confirm that the EUT transmits neither response message nor ACK response.
If the transparent mode message (server function) is implemented, confirm that thereceived data by the EUT is incremented.

Test
necessity
identified
by theEUT class

Class 1

R

Class 2

RClass 3

R

Class 4

R

Class 5RClass 6

R

Class 7RJEM 1480:2023– 212 –

Table 66 – Transparent mode message (continued)
Setting parameter(node)

EUT(The
parameters
vary
according to
the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6 and
7Node number

1

Token watchdog
time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog
time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog
time

(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog
time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

– 213 –JEM 1480:2023

Table 66 – Transparent mode message (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary
according to
the EUTclass)Classes 1, 2,
3, 4 and 5

Class 6

Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)3 (Controller)
85
50
10
4
4
64
64
4 (Flexible master)
85
50
10
According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address = 16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

JEM 1480:2023– 214 –

Table 66 – Transparent mode message (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

6.6.9

Test
equipment(Theparameters
vary
according to
the EUTclass)(continued)

Class 7

Transmission message

Implementationclass

3 (Controller)

Node number

85

Token watchdog
time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1024

Area 2 data size

64InterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side
(DNA)

255

TCD

59 999 (Transparent mode
message)

Data size

1024

Contents of data

Word incremental data startingwith 16#11AA

Message transmission (client function)

Testing for message transmission (client function) are as follows:a)peer-to-peer message operation (client function)

Tables 67 through 79 show test tables for peer-to-peer message operation (client function).
Table 67 – Byte block read
Test number

V2-061

Major test group

Message transmission (client function)

Test group

Peer-to-peer message operation test (client function)

Test objects

Byte block read

Test procedure

Start the EUT, then start the test equipment.
The EUT sends a byte block read request.
Use word incremental data starting from 16#11AA as contents of data in thetransmission message.

Evaluation criteria

Confirm that the EUT receives a byte block read response from the test equipment.
Confirm that contents of receive data are word incremental.

Test
necessity
identified
by theEUT class

Class 1O (if FL-net message peer-to-peer byte block read client function is implemented.)

Class 2O (if FL-net message peer-to-peer byte block read client function is implemented.)

Class 3O (if FL-net message peer-to-peer byte block read client function is implemented.)

Class 4O (if FL-net message peer-to-peer byte block read client function is implemented.)

Class 5O (if FL-net message peer-to-peer byte block read client function is implemented.)

Class 6O (if FL-net message peer-to-peer byte block read client function is implemented.)

Class 7O (if FL-net message peer-to-peer byte block read client function is implemented.)– 215 –JEM 1480:2023

Table 67 – Byte block read (continued)
Setting parameter(node)

EUT(The
parameters
vary
according to
the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6 and
7Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary
according to
the EUTclass)Classes 1, 2,
3, 4 and 5

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
4
0
64
Optional
1
(50)
(10)
0
0
0
0
100
(100)
(10)
256
256
1024
1024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64

JEM 1480:2023– 216 –

Table 67 – Byte block read (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary
according to
the EUTclass)(continued)

Class 6

Implementation class4 (Flexible master)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

85
50
10Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
3 (Controller)
85
50
10
256
4
1024
64

– 217 –JEM 1480:2023

Table 67 – Byte block read (continued)
Setting parameter(test data)

Transmission message

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD

Reception message

Data size
Virtual address
Virtual size
Contents of data
Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Virtual address
Virtual size
Contents of data

FL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

65 003 (Byte block readrequest)064
32NAFL-net message
85
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
65 203 (Byte block read
response)32
64
32
Word incremental data startingfrom 16#11AA

Table 68 – Byte block write
Test number

V2-062Major test group

Message transmission (client function)

Test group

Peer-to-peer message operation test (client function)

Test objects

Byte block write

Test procedure

Start the EUT, then start the test equipment.
The EUT sends a byte block write request.
Use word incremental data starting from 16#11AA as contents of data in thetransmission message.

Evaluation criteria

Confirm that the EUT sends the requirement message.
Confirm that contents of the received data by the test equipment are incremental.

Test
necessityidentifie
d by the
EUT
class

Class 1O (if FL-net message peer-to-peer byte block write client function is implemented.)

Class 2O (if FL-net message peer-to-peer byte block write client function is implemented.)

Class 3O (if FL-net message peer-to-peer byte block write client function is implemented.)

Class 4O (if FL-net message peer-to-peer byte block write client function is implemented.)

Class 5O (if FL-net message peer-to-peer byte block write client function is implemented.)

Class 6O (if FL-net message peer-to-peer byte block write client function is implemented.)

Class 7O (if FL-net message peer-to-peer byte block write client function is implemented.)

JEM 1480:2023– 218 –

Table 68 – Byte block write (continued)
Setting parameter(node)

EUT(The
parameters
vary
according to
the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6 and
7Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary
according to
the EUTclass)Classes 1, 2,
3, 4 and 5

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
4
0
64
Optional
1
(50)
(10)
0
0
0
0
100
(100)
(10)
256
256
1024
1024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64

– 219 –JEM 1480:2023

Table 68 – Byte block write (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary
according to
the EUTclass)(continued)

Class 6

Implementation class4 (Flexible master)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

85
50
10Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
3 (Controller)
85
50
10
256
4
1024
64

JEM 1480:2023– 220 –

Table 68 – Byte block write (continued)
Setting parameter(test data)

Transmission message

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Virtual address
Virtual size
Contents of data

Reception message

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Virtual address
Virtual size
Contents of data

FL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

65 004 (Byte block write
request)32
64
32
Word incremental data startingfrom 16#11AA
FL-net message
85
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
65 204 (Byte block write
response)
0
64
32
NA

Table 69 – Word block read
Test number

V2-063Major test group
Test group
Test objects
Test procedure

Message transmission (client function)Peer-to-peer message operation test (client function)
Word block readStart the EUT, then start the test equipment.
The EUT transmits a word block read request.
Use word incremental data starting from 16#11AA for contents of the transmission
message.
a) Confirm that the EUT receives a word block read response from the test equipment.
b) Confirm that the received response data is word incremental.
O (if FL-net message peer-to-peer word block read client function is implemented.).
O (if FL-net message peer-to-peer word block read client function is implemented.).
O (if FL-net message peer-to-peer word block read client function is implemented.).
O (if FL-net message peer-to-peer word block read client function is implemented.).
O (if FL-net message peer-to-peer word block read client function is implemented.).
O (if FL-net message peer-to-peer word block read client function is implemented.).
O (if FL-net message peer-to-peer word block read client function is implemented.).

Evaluation criteria
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

– 221 –JEM 1480:2023

Table 69 – Word block read (continued)
Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
4
0
64
Optional
1
(50)
(10)
0
0
0
0
100
(100)
(10)
256
256
1024
1024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64

JEM 1480:2023– 222 –

Table 69 – Word block read (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 6

Implementation class4 (Flexible master)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

85
50
10Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
3 (Controller)
85
50
10
256
4
1024
64

– 223 –JEM 1480:2023

Table 69 – Word block read (continued)
Setting parameter(test data)

Transmission message

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD

Reception message

Data size
Virtual address
Virtual size
Contents of data
InterfaceFL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

65 005 (word block readrequest)064
32NAFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side
(DNA)
TCD

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
65 205 (word block read
response)
64

Data size
Virtual address
Virtual size
Contents of data

64
32
Word incremental data startingfrom 16#11AA

Table 70 – Word block write
Test number

V2-064

Major test group

Message transmission (client function)

Test group

Peer-to-peer message operation test (client function)

Test objects

Word block write

Test procedure

Start the EUT, then start the test equipment.
The EUT transmits a word block write request.
Use word incremental data starting from 16#11AA for contents of the transmission
message.

Evaluation criteria

Confirm that the EUT transmits the request message.
Confirm that the received response data by the test equipment is word incremental.

Test
necessity
identified
by theEUT class

Class 1O (if FL-net message peer-to-peer word block write client function is implemented.)

Class 2O (if FL-net message peer-to-peer word block write client function is implemented.)

Class 3O (if FL-net message peer-to-peer word block write client function is implemented.)

Class 4O (if FL-net message peer-to-peer word block write client function is implemented.)

Class 5O (if FL-net message peer-to-peer word block write client function is implemented.)

Class 6O (if FL-net message peer-to-peer word block write client function is implemented.)

Class 7O (if FL-net message peer-to-peer word block write client function is implemented.)

JEM 1480:2023– 224 –

Table 70 – Word block write (continued)
Setting parameter(node)

EUT(The
parameters
vary
according to
the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6 and
7Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary
according to
the EUTclass)Classes 1, 2,
3, 4 and 5

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
4
0
64
Optional
1
(50)
(10)
0
0
0
0
100
(100)
(10)
256
256
1024
1024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64

– 225 –JEM 1480:2023

Table 70 – Word block write (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary
according to
the EUTclass)(continued)

Class 6

Implementation class4 (Flexible master)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

85
50
10Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
3 (Controller)
85
50
10
256
4
1024
64

JEM 1480:2023– 226 –

Table 70 – Word block write (continued)
Setting parameter(test data)

Transmission message

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Virtual address
Virtual size
Contents of data

Reception message

InterfaceFL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

6 006 (word block write
request)64
64
32
Word incremental data startingfrom 16#11AA
FL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side
(DNA)
TCD
Data size

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
65 206 (word block write
response)0

Virtual address
Virtual size
Contents of data

64
32
NA

Table 71 – Network parameter read
Test number

V2-065Major test group

Message transmission (client function)

Test group

Peer-to-peer message operation test (client function)

Test objects

Network parameter read

Test procedurea) Start the EUT, then start the test equipment.
b) The EUT transmits a network parameter read request.

Evaluation criteriaa) Confirm that the EUT transmits the request message.
b) Confirm that the received network parameter read response data by the EUT is
identical to the data of the test equipment.

Test
necessity
identified
by theEUT class

Class 1O (if FL-net message peer-to-peer network parameter read client function is
implemented.)

Class 2O (if FL-net message peer-to-peer network parameter read client function is
implemented.)

Class 3O (if FL-net message peer-to-peer network parameter read client function is
implemented.)

Class 4O (if FL-net message peer-to-peer network parameter read client function is
implemented.)

Class 5O (if FL-net message peer-to-peer network parameter read client function is
implemented.)

Class 6O (if FL-net message peer-to-peer network parameter read client function is
implemented.)

Class 7O (if FL-net message peer-to-peer network parameter read client function is
implemented.)– 227 –JEM 1480:2023

Table 71 – Network parameter read
Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
4
0
64
Optional
1
(50)
(10)
0
0
0
0
100
(100)
(10)
256
256
1024
1024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64

JEM 1480:2023– 228 –

Table 71 – Network parameter read (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 6

Implementation class4 (Flexible master)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

85
50
10Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
3 (Controller)
85
50
10
256
4
1024
64

– 229 –JEM 1480:2023

Table 71 – Network parameter read (continued)
Setting parameter(test data)

Transmission message

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD

Reception message

Data size
Contents of data
InterfaceFL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

65 007 (network parameterread request)
0NA
FL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side
(DNA)
TCD

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
65 207 (network parameterread response)
56

Data size
Contents of data

Node name = "Tester" (Testexecuter confirms)
Vendor code andmanufacturer model name areaccording to the test
equipment* Area 1 data top address =According to the EUT class:* Classes 1, 2, 3, 4 and 5: 4
* Class 6: according to thenumber of output points ofthe slave, the EUT:
* 0 point: 0* 1 point or more: 256* Class 7: 256
Area 2 data top address =According to the EUT class:* Classes 1, 2, 3, 4 and 5: 64* Classes 6 and 7: 1024
Area 2 data size = According
to the EUT class:* Classes 1, 2, 3, 4, 5 and 7:
64* Class 6: 1024
Token watchdog time = 50

JEM 1480:2023– 230 –

Table 71 – Network parameter read (continued)
Setting parameter(test data)(continued)

Reception message(continued)

Contents of data(continued)

Allowable minimum frameinterval time = 10 (Testexecuter confirms)
Link status = (No evaluation)
Protocol type = 128 (Testexecuter confirms)
Upper layer status = (Noevaluation)
Allowable refresh cycle time =(No evaluation)
Refresh cycle measurement
time (current) = (Noevaluation)
Refresh cycle measurement
time (maximum) = (Noevaluation)
Refresh cycle measurement
time (minimum) = (Noevaluation)

Table 72 – Network parameter write
Test number

V2-066

Major test group
Test group
Test objects
Test procedure

Message transmission (client function)Peer-to-peer message operation test (client function)
Network parameter write
Start the EUT, then start the test equipment.
The EUT transmits a network parameter write request.
Confirm that the EUT transmits the request message.
Confirm that the network parameter sent by the EUT is written correctly.
O (if FL-net message peer-to-peer network parameter write client function is
implemented.).
O (if FL-net message peer-to-peer network parameter write client function is
implemented.).
O (if FL-net message peer-to-peer network parameter write client function is
implemented.).
O (if FL-net message peer-to-peer network parameter write client function is
implemented.).
O (if FL-net message peer-to-peer network parameter write client function is
implemented.).
O (if FL-net message peer-to-peer network parameter write client function is
implemented.).
O (if FL-net message peer-to-peer network parameter write client function is
implemented.).
EUT
Classes 1, 3
Node number
1
(The
and 4
Token watchdog time
(50)
parameters
Allowable minimum(10)
vary according
frame interval timeto the class)
Area 1 data top
0
address
Area 1 data size
4
Area 2 data top
0
address
Area 2 data size
64
Node name"TargetNode"IO allocation setting
Optional(for class 4)

Evaluation criteria
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

Setting parameter(node)

– 231 –JEM 1480:2023

Table 72 – Network parameter write (continued)
Setting parameter(node)(continued)

EUT
(The
parameters
vary according
to the class)(continued)

Class 2

Class 5Classes 6
and 7

Node number

1

Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node name
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node Name
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

(50)
(10)

Area 2 data top
address
Area 2 data size

Node nameTest
equipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address00
00"TargetNode"
100
(100)
(10)
256
256
1024
1024
"TargetNode"
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT"TargetNode"
3 (Controller)
85
50
10
4
4
64
64
4 (Flexible master)
85
50
10
According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256

JEM 1480:2023– 232 –

Table 72 – Network parameter write (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 6
(continued)

Class 7

Setting parameterTransmission massage

Area 1 data size

To be calculated from thenumber of output points of theslave, the EUT

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)1024

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Interface
Node number ofsource side (SNA)

3 (Controller)
85
50
10

Node number ofdestination side
(DNA)
TCD
Data size

1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

256
4
1024
64
FL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

65 008 (network parameter
write request)20

– 233 –JEM 1480:2023

Table 72 – Network parameter write (continued)
Setting parameter(test data)(continued)

Transmission message(continued)

Contents of data

Flag = 3
Area 1 data top address = 264
Area 1 data size = 4
Area 2 data top address =1152
Area 2 data size = 64
Node name = " NetParamet"

Reception message

InterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side
(DNA)
TCD
Data size

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
65 208 (Network parameter
write response)0

Contents of data

NA

Table 73 – Operation command
Test number

V2-067

Major test group
Test group
Test objects
Test procedure

Message transmission (client function)Peer-to-peer message operation test (client function)
Operation command
Start the EUT, then start the test equipment.
The test equipment transmits a response to an operation command (RUN).
Confirm that the EUT transmits the request message.
Confirm that ULS (upper layer status) RUN flag of the test equipment is "1".
O (if FL-net message peer-to-peer operation command client function is implemented.).
O (if FL-net message peer-to-peer operation command client function is implemented.).
O (if FL-net message peer-to-peer operation command client function is implemented.).
O (if FL-net message peer-to-peer operation command client function is implemented.).
O (if FL-net message peer-to-peer operation command client function is implemented.).
O (if FL-net message peer-to-peer operation command client function is implemented.).
O (if FL-net message peer-to-peer operation command client function is implemented.).
EUT
Classes 1, 3
Node number
1
(The
and 4
Token watchdog time
(50)
parameters
Allowable minimum(10)
vary according
frame interval timeto the class)
Area 1 data top
0
address
Area 1 data size
4
Area 2 data top
0
address
Area 2 data size
64
IO allocation setting
Optional(for class 4)

Evaluation criteria
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)JEM 1480:2023– 234 –

Table 73 – Operation command (continued)
Setting parameter(node)(continued)

EUT
(The
parameters
vary according
to the class)(continued)

Class 2

Class 5Classes 6
and 7

Node number

1

Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

(50)
(10)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

100
(100)
(10)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

1
(50)
(10)

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address

0
0
0
0

256
256
1024
1024

0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64
4 (Flexible master)
85
50
10
According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024

– 235 –JEM 1480:2023

Table 73 – Operation command (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 6
(continued)

Class 7

Setting parameter(test data)

Transmission massage

Area 2 data size

1024

IO allocation setting(number of control
slaves)IO allocation setting(slave setting)1

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Interface
Node number ofsource side (SNA)

3 (Controller)
85
50
10

Node number ofdestination side
(DNA)
TCD

Reception message

Data size
Contents of data
Interface
Node number ofsource side (SNA)

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

256
4
1024
64
FL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

65 010 (operation command
request)0NAFL-net message
85

JEM 1480:2023– 236 –

Table 73 – Operation command (continued)
Setting parameter(test data)(continued)

Reception message(continued)

Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
65 210 (operation command
response)0
NA

Table 74 – Stop command
Test number

V2-068Major test group

Message transmission (client function)

Test group

Peer-to-peer message operation test (client function)

Test objects

Stop command

Test procedure

Start the EUT, then start the test equipment.
The EUT transmits the stop command (STOP).

Evaluation criteria

Confirm that the EUT transmits the request message.
Confirm that ULS (upper layer status) RUN flag of the test equipment is "0".

Test
necessity
identified
by theEUT class

Class 1O (if FL-net message peer-to-peer stop command client function is implemented.).

Class 2O (if FL-net message peer-to-peer stop command client function is implemented.).

Class 3O (if FL-net message peer-to-peer stop command client function is implemented.).

Class 4O (if FL-net message peer-to-peer stop command client function is implemented.).

Class 5O (if FL-net message peer-to-peer stop command client function is implemented.).

Class 6O (if FL-net message peer-to-peer stop command client function is implemented.).

Class 7O (if FL-net message peer-to-peer stop command client function is implemented.).

Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size0

– 237 –JEM 1480:2023

Table 74 – Stop command (continued)
Setting parameter(node)(continued)

EUT
(The
parameters
vary according
to the class)(continued)

Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

100
(100)
(10)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

1
(50)
(10)

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

256
256
1024
1024

0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64
4 (Flexible master)
85
50
10
According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = !6#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)

JEM 1480:2023– 238 –

Table 74 – Stop command (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 6
(continued)

IO allocation setting(slave setting)(continued)

Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address = 16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

Class 7

Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Interface
Node number ofsource side (SNA)

3 (Controller)

Transmission massage

Reception message

Node number ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

85
50
10
256
4
1024
64
FL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

65 009 (stop command request)
0NA
FL-net message
85
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
65 209 (stop command
response)0NA

– 239 –JEM 1480:2023

Table 75 – Profile read
Test number

V2-069Major test group
Test group
Test objects
Test procedure

Message transmission (client function)Peer-to-peer message operation test (client function)
Profile readStart the EUT, then start the test equipment.
The EUT transmits a profile read request.
Confirm that the EUT transmits the request message.
Confirm that the EUT reads the profile data of the test equipment correctly.
O (if FL-net message peer-to-peer profile read client function is implemented.).
O (if FL-net message peer-to-peer profile read client function is implemented.).
O (if FL-net message peer-to-peer profile read client function is implemented.).
O (if FL-net message peer-to-peer profile read client function is implemented.).
O (if FL-net message peer-to-peer profile read client function is implemented.).
O (if FL-net message peer-to-peer profile read client function is implemented.).
O (if FL-net message peer-to-peer profile read client function is implemented.).
EUT
Classes 1, 3
Node number
1
(The
and 4
Token watchdog time
(50)
parameters
vary according
Allowable minimum(10)
to the class)frame interval time
Area 1 data top
0
address
Area 1 data size
4
Area 2 data top
0
address
Area 2 data size
64
IO allocation setting
Optional(for class 4)Class 2
Node number
1
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top
0
address
Area 1 data size
0
Area 2 data top
0
address
Area 2 data size
0Class 5
Node number
100

Evaluation criteria
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

(100)
(10)
256
256
1024
1024

JEM 1480:2023– 240 –

Table 75 – Profile read (continued)
Setting parameter(node)(continued)

EUT
(The
parameters
vary according
to the class)(continued)

Classes 6
and 7

Node number

1

Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

(50)
(10)

Area 2 data top
address
Area 2 data size
Testequipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64
4 (Flexible master)
85
50
10
According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1
Slave node number = !6#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
Output data size = To be
calculated from the number of
output points of the slave, theEUT

– 241 –JEM 1480:2023

Table 75 – Profile read (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 6
(continued)

IO allocation setting(slave setting)(continued)

Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Interface
Node number ofsource side (SNA)

3 (Controller)
85
50
10

Transmission massage

Reception message

Node number ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

256
4
1024
64
FL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

65 011 (profile read request)
0NA
FL-net message
85
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
65 211 (profile read response)
Optional (Depending on thecertification tool specification)
Optional (Depending on thecertification tool specification)

Table 76 – Log data read
Test number

V2-070Major test group

Message transmission (client function)

Test group

Peer-to-peer message operation test (client function)

Test objects

Log data read

Test procedure

Start the EUT, then start the test equipment.
The EUT transmits a log data read request.

Evaluation criteria

Confirm that the EUT transmits the request message.
Confirm that the EUT reads the log data read of the test equipment correctly.

JEM 1480:2023– 242 –

Table 76 – Log data read (continued)
Test
necessity
identified
by theEUT class

Class 1O (if FL-net message peer-to-peer log data read client function is implemented.).

Class 2O (if FL-net message peer-to-peer log data read client function is implemented.).

Class 3O (if FL-net message peer-to-peer log data read client function is implemented.).

Class 4O (if FL-net message peer-to-peer log data read client function is implemented.).

Class 5O (if FL-net message peer-to-peer log data read client function is implemented.).

Class 6O (if FL-net message peer-to-peer log data read client function is implemented.).

Class 7O (if FL-net message peer-to-peer log data read client function is implemented.).

Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

– 243 –JEM 1480:2023

Table 76 – Log data read (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

Implementation class4 (Flexible master)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256

Area 1 data size

To be calculated from thenumber of output points of theslave, the EUT

Area 2 data top
address

1024

Area 2 data size

1024

IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number = !6#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

JEM 1480:2023– 244 –

Table 76 – Log data read (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 7

Transmission massage

Reception message

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1024

Area 2 data size

64InterfaceFL-net message

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)

85

TCD

65 013 (log data read request)

Data size

0Contents of data

NAInterfaceFL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side(DNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

TCD

65 213 (log data read
response)

Data size

512

Contents of data

Optional (Depending on thecertification tool specification)

Table 77 – Log data clear
Test number

V2-071

Major test group

Message transmission (client function)

Test group

Peer-to-peer message operation test (client function)

Test objects

Log data clear

Test procedure

Start the EUT, then start the test equipment.
The EUT transmits a log data clear request.

Evaluation criteria

Confirm that the EUT transmits the request message.

Test
necessity
identified
by theEUT class

Class 1O (if FL-net message peer-to-peer log data clear client function is implemented.).

Class 2O (if FL-net message peer-to-peer log data clear client function is implemented.).

Class 3O (if FL-net message peer-to-peer log data clear client function is implemented.).

Class 4O (if FL-net message peer-to-peer log data clear client function is implemented.).

Class 5O (if FL-net message peer-to-peer log data clear client function is implemented.).

Class 6O (if FL-net message peer-to-peer log data clear client function is implemented.).

Class 7O (if FL-net message peer-to-peer log data clear client function is implemented.).

– 245 –JEM 1480:2023

Table 77 – Log data clear (continued)
Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
4
0
64
Optional
1
(50)
(10)
0
0
0
0
100
(100)
(10)
256
256
1024
1024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64

JEM 1480:2023– 246 –

Table 77 – Log data clear (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 6

Implementation class4 (Flexible master)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

85
50
10Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
3 (Controller)
85
50
10
256
4
1024
64

– 247 –JEM 1480:2023

Table 77 – Log data clear (continued)
Setting parameter(test data)

Transmission message

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size

Reception message

FL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

65 014 (log data clear request)
0

Contents of data
InterfaceNA
FL-net message

Node number ofsource side (SNA)

85

Node number ofdestination side
(DNA)
TCD
Data size

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
65 214 (log data clear
response)
0

Contents of data

NA

Table 78 – Message echo back
Test number

V2-072Major test group

Message transmission (client function)

Test group

Peer-to-peer message operation test (client function)

Test objects

Message echo back

Test procedure

Start the EUT, then start the test equipment.
The test equipment transmits a message echo back response.
Use word incremental data starting from 16#11AA for contents of data of thetransmission message

Evaluation criteria

Confirm that the EUT transmits the request message.
The response message from the test equipment is identical to the request message.

Test
necessity
identified
by theEUT class

Class 1O (if FL-net message peer-to-peer message echo back client function is implemented.).

Class 2O (if FL-net message peer-to-peer message echo back client function is implemented.).

Class 3O (if FL-net message peer-to-peer message echo back client function is implemented.).

Class 4O (if FL-net message peer-to-peer message echo back client function is implemented.).

Class 5O (if FL-net message peer-to-peer message echo back client function is implemented.).

Class 6O (if FL-net message peer-to-peer message echo back client function is implemented.).

Class 7O (if FL-net message peer-to-peer message echo back client function is implemented.).

JEM 1480:2023– 248 –

Table 78 – Message echo back (continued)
Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
4
0
64
Optional
1
(50)
(10)
0
0
0
0
100
(100)
(10)
256
256
1024
1024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64

– 249 –JEM 1480:2023

Table 78 – Message echo back (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 6

Implementation class4 (Flexible master)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

85
50
10Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
3 (Controller)
85
50
10
256
4
1024
64

JEM 1480:2023– 250 –

Table 78 – Message echo back (continued)
Setting parameter(test data)

Transmission message

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

Reception message

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

FL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

65 015 (message echo backrequest)1024
Word incremental data startingfrom 16#11AA
FL-net message
85
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
65 215 (message echo backresponse)0
Word incremental data startingfrom 16#11AA

Table 79 – Transparent mode message
Test number

V2-073Major test group

Message transmission (client function)

Test group

Peer-to-peer message operation test (client function)

Test objects

Transparent mode message

Test procedure

Start the EUT, then start the test equipment.
The EUT transmits a transparent mode message.
Execute tests with settings of patterns 1 through 3, respectively.
Use word incremental data starting from 16#11AA for contents of data of thetransmission message

Evaluation criteria

Confirm that the test equipment receives the message from the EUT.

Test
necessity
identified
by theEUT class

Class 1O (if FL-net message peer-to-peer transparent mode message client function is
implemented.).

Class 2O (if FL-net message peer-to-peer transparent mode message client function is
implemented.).

Class 3O (if FL-net message peer-to-peer transparent mode message client function is
implemented.).

Class 4O (if FL-net message peer-to-peer transparent mode message client function is
implemented.).

Class 5O (if FL-net message peer-to-peer transparent mode message client function is
implemented.).

Class 6O (if FL-net message peer-to-peer transparent mode message client function is
implemented.).

Class 7O (if FL-net message peer-to-peer transparent mode message client function is
implemented.).

– 251 –JEM 1480:2023

Table 79 – Transparent mode message (continued)
Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
4
0
64
Optional
1
(50)
(10)
0
0
0
0
100
(100)
(10)
256
256
1024
1024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64

JEM 1480:2023– 252 –

Table 79 – Transparent mode message (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 6

Implementation class4 (Flexible master)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

85
50
10Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
3 (Controller)
85
50
10
256
4
1024
64

– 253 –JEM 1480:2023

Table 79 – Transparent mode message (continued)
Setting parameter(test data)

Pattern 1

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

Pattern 2

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node number ofsource side (SNA)

Pattern 3

Node number ofdestination side
(DNA)
TCD
Data size
Contents of datab)

FL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

10 000 (transparent mode
message)1024
Word incremental data startingfrom 16#11AA
FL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

59 999 (transparent mode
message)0NAFL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
85

10 000 (transparent mode
message)
512
Word incremental data startingfrom 16#11AA

broadcast message operation (client function)

Tables 80 and 81 show test tables for broadcast message operation (client function)
Table 80 – Log data clear
Test number

V2-074

Major test group

Message transmission (client function)

Test group

Broadcast message operation

Test objects

Log data clear

Test procedure
Evaluation criteria

Start the EUT, then start the test equipment.
The EUT transmits a log data clear request.
Confirm that the EUT transmits the request message.

JEM 1480:2023– 254 –

Table 80 – Log data clear (continued)
Test
necessity
identified
by theEUT class

Class 1O (if FL-net message broadcast log data clear client function is implemented.).

Class 2O (if FL-net message broadcast log data clear client function is implemented.).

Class 3O (if FL-net message broadcast log data clear client function is implemented.).

Class 4O (if FL-net message broadcast log data clear client function is implemented.).

Class 5O (if FL-net message broadcast log data clear client function is implemented.).

Class 6O (if FL-net message broadcast log data clear client function is implemented.).

Class 7O (if FL-net message broadcast log data clear client function is implemented.).

Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

64

IO allocation setting(for class 4)

Optional

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

0

Area 2 data top
address0

Area 2 data size

0

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1024

Area 2 data size

1024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input points of theslave, the EUT

Area 2 data top
address0

Area 2 data size

To be calculated from thenumbers of input and output
points of the slave, the EUT

– 255 –JEM 1480:2023

Table 80 – Log data clear (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Class 6

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

Implementation class4 (Flexible master)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256

Area 1 data size

To be calculated from thenumber of output points of theslave, the EUT

Area 2 data top
address

1024

Area 2 data size

1024

IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number = !6#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)

JEM 1480:2023– 256 –

Table 80 – Log data clear (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 7

Transmission massage

Implementation class

3 (Controller)

Node number

85

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1024

Area 2 data size

64InterfaceFL-net message

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)

255

TCD

65 014 (log data clear request)

Data size

0Contents of data

NA

Table 81 – Transparent mode message
Test number

V2-075Major test group

Message transmission (client function)

Test group

Broadcast message operation

Test objects

Transparent mode message

Test procedure

Start the EUT, then start the test equipment.
The EUT transmits a transparent mode message.
Execute tests with settings of patterns 1 through 3, respectively.

Evaluation criteria

Confirm that the test equipment receives the message from the EUT.

Test
necessity
identified
by theEUT class

Class 1O (if FL-net message broadcast transparent mode message client function is
implemented.).

Class 2O (if FL-net message broadcast transparent mode message client function is
implemented.).

Class 3O (if FL-net message broadcast transparent mode message client function is
implemented.).

Class 4O (if FL-net message broadcast transparent mode message client function is
implemented.).

Class 5O (if FL-net message broadcast transparent mode message client function is
implemented.).

Class 6O (if FL-net message broadcast transparent mode message client function is
implemented.).

Class 7O (if FL-net message broadcast transparent mode message client function is
implemented.).

– 257 –JEM 1480:2023

Table 81 – Transparent mode message (continued)
Setting parameter(node)

EUT(The
parameters
vary according
to the class)

Classes 1, 3
and 4

Class 2

Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Theparameters
vary according
to the EUT
class)Classes 1, 2,
3, 4 and 5

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
4
0
64
Optional
1
(50)
(10)
0
0
0
0
100
(100)
(10)
256
256
1024
1024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave, the EUT0To be calculated from thenumbers of input and output
points of the slave, the EUT
3 (Controller)
85
50
10
4
4
64
64

JEM 1480:2023– 258 –

Table 81 – Transparent mode message (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameters
vary according
to the EUT
class)(continued)

Class 6

Implementation class4 (Flexible master)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

85
50
10Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

According to the number of
output points of the slave, theEUT:* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output points of theslave, the EUT
1024
1024
1

Slave node number = 16#8001(Flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = To be
calculated from the number of
input points of the slave, theEUT.
Output data address =According to the number of
output points of the slave, theEUT:* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = To be
calculated from the number of
output points of the slave, the
EUT
Input status address =16#8000(Area 2, address = 0)
Output status address =16#8400(Area 2, address = 1024)
3 (Controller)
85
50
10
256
4
1024
64

– 259 –JEM 1480:2023

Table 81 – Transparent mode message (continued)
Setting parameter(test data)

Pattern 1

Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD

Pattern 2

Data size

10 000 (transparent mode
message)
1024

Contents of data
Interface

Defined by the manufacturer
FL-net message

Node number ofsource side (SNA)

According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
255

Node number ofdestination side
(DNA)
TCD
Data size
Pattern 3

Contents of data
Interface
Node number ofsource side (SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

6.6.10FL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
255

59 999 (transparent mode
message)0NAFL-net message
According to the EUT class:* Classes 1, 2, 3, 4, 6 and 7: 1
* Class 5: 100
255

10 000 (transparent mode
message)
512
Defined by the manufacturer

General purpose command server function

Table 82 to Table 133 show the test tables for general purpose command server function.
a)Basic operation test (UDP) Table 82 and Table 83 show the test tables for the basic operation test
(UDP).
Table 82 – Frame sequence number

Test number

V3-001

Major test group

General purpose command server function

Test group

Basic operation test (UDP)

Test objects

Frame sequence number

Test procedure

Start the EUT, then start the test equipment.
The test equipment (UDP setting tool interface) transmits a self node management
information parameter read frame (request) 5 times.
Confirm that the EUT transmits a self node management information parameter readframe (response) each time, with a sequence number that is the same as the sequencenumber of the request frame.

Evaluation criteria

JEM 1480:2023– 260 –

Table 82 – Frame sequence number (continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

N
N
R
R
R
R
R
EUT
(By class,parameters
are different)

Classes 3 and4Class 5Classes 6 and
7Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for Class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(By class of
EUT,parameters
are different)

Classes 3, 4
and 5

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
4
0
16
optional
100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
To be calculated from thenumber of input slave points inthe EUT.
0
To be calculated from thenumber of input slave points
and output slave points in the
EUT.
3 (controller)
254
50
10
4
4
64
64

– 261 –JEM 1480:2023

Table 82 – Frame sequence number (continued)
Setting parameter(node)(continued)

Test
equipment(By class of
EUT,parameters
are different)(continued)

Class 6

Implementation class4 (flexible master)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top
address

10

Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

Depends on the number of
output slave points in the EUT.
* 0 point: 0* 1 point or more: 256
Depends on the number of
output slave points in the EUT.
1 024
1 024
1

Slave node number: 16#8001(flexible setting mode, Node
number: 1)
Input data address: 16#0000(area 1, address: 0)
Input data size: To be
calculated from the number of
input slave points in the EUT.
Output data address: Depends
on the number of output slave
points in the EUT.
* 0 point:16#0000(area 1, address: 0)* 1 point or more: 16#0100(area 1, address: 256)
Output data size: To be
calculated form the numberof output slave points in the
EUT.
Input status address: 16#8000(area 2, address: 0)

Class 7

Implementation class

Output status address:
16#8400(area 2, address: 1024)
3 (controller)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

10

Area 2 data top
address
Area 2 data size

1 024

256
4

64

JEM 1480:2023– 262 –

Table 82 – Frame sequence number (continued)
Setting parameter(test data)

Transmission frame

Reception frame

Interface

UDP setting tool interface

Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)

254

TCD

Data size

65 026 (self nodemanagement information
parameter read request)
0

Contents of data

NAInterface

UDP setting tool interface

Node address ofsource side
(SNA)

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)
TCD

254

Type of response
message(M_RLT)

Response time limit(from request frametransmission to response
frame reception)

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

65 226 (self nodemanagement information
parameter read response)
0 (normal)

Data size

64

Contents of data

optional (no evaluation)

1s

Table 83 – Frame sequence number skip
Test number

V3-002Major test group

General purpose command server function

Test group

Basic operation test (UDP)

Test objects

Frame sequence number skip

Test procedure

Class 1

Start the EUT, then start the test equipment.
The test equipment (UDP setting tool interface) transmits a self node management
information parameter read frame (request).
The test equipment (UDP setting tool interface) transmits another self nodemanagement information parameter read frame (request) with its sequence number
added by 10 to that of the transmitted last time.
Confirm that the EUT transmits a self node management information parameter readframe (response) each time, with a sequence number that is the same as the sequencenumber of the request frame.
N

Class 2

N

Class 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Evaluation criteria

Test
necessity
identified
by theEUT class– 263 –JEM 1480:2023

Table 83 – Frame sequence number skip (continued)
Setting parameter(node)EUT(By class,parameters
are different)

Classes 3 and4Class 5Classes 6 and7Testequipment(By class of
EUT,parameters
are different)

Classes 3, 4
and 5Class 6

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

4

Area 2 data top
address0

Area 2 data size

16

IO allocation setting (forClass 4)

optional

Node number

100

Token watchdog time(100)

Allowable minimum
frame interval time

(10)

Area 1 data top
address

256

Area 1 data size

256

Area 2 data top
address

1 024

Area 2 data size

1 024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

Area 1 data top
address0

Area 1 data size

To be calculated from thenumber of input slave points
in the EUT.

Area 2 data top
address0

Area 2 data size

To be calculated from thenumber of input slave points
and output slave points inthe EUT.

Implementation class3 (controller)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

4

Area 1 data size

4

Area 2 data top
address

64

Area 2 data size

64

Implementation class4 (flexible master)

Node number

254

Token watchdog time

50

JEM 1480:2023– 264 –

Table 83 – Frame sequence number skip (continued)
Setting parameter(node)(continued)

Test
equipment(By class of
EUT,parameters
are different)(continued)

Class 6
(continued)

Allowable minimum
frame interval time

10

Area 1 data top
address

Depends on the number of
output slave points in theEUT.
* 0 point: 0* 1 point or more: 256

Area 1 data size

To be calculated from thenumber of output slave
points in the EUT.

Area 2 data top
address

1 024

Area 2 data size

1 024

IO allocation setting(number of control
slaves)1

IO allocation setting(slave setting)Slave node number:
16#8001(flexible setting mode, Node
number:1)
Input data address: 16#0000(area 1, address: 0)
Input data size: To be
calculated from the numberof input slave points in the
EUT.
Output data address:
Depends on the number of
output slave points in theEUT.
* 0 point: 16#0000(area 1, address: 0)* 1 point or more: 16#0100(area 1, address: 256)
Output data size: To be
calculated from the numberof output slave points in the
EUT.
Input status address:
16#8000(area 2, address: 0)
Output status address:
16#8400(area 2, address: 1 024)

Class 7

Implementation class3 (controller)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time

10

Area 1 data top
address

256

Area 1 data size

4

Area 2 data top
address

1 024

Area 2 data size64

– 265 –JEM 1480:2023

Table 83 – Frame sequence number skip (continued)
Setting parameter(test data)

Setting parameter(test data)(continued)

Transmission frame

Reception frame

Response time limit(from request frametransmission to response
frame reception)b)Interface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD

Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD

Type of response
message(M_RLT)
Data size
Contents of data
1s

UDP setting tool interface
254

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 026 (self nodemanagement information
parameter read request)
0NA
UDP setting tool interface
Depends on EUT class.
* Classes 3, 4, 6, and 7: 1
* Class 5: 100
254

65 226 (self nodemanagement information
parameter read response)
0 (normal)

64
optional (no evaluation)

Basic operation test (TCP) Table 84 to Table 86 show the test tables for the basic operation test
(TCP).
Table 84 – Connection open, close

Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V3-003General purpose command server function
Basic operation test (TCP)
Connection open, close
Start the EUT, then start the test equipment.
Repeat the following steps 10 times.
* The test equipment (TCP setting tool interface) opens a connection to the EUT.
* The test equipment (TCP setting tool interface) transmits a node management
information parameter read frame (request).
* The test equipment closes the connection to the EUT.
Confirm the followings:
The opening of a connection to the EUT is successful on each of the 10 occasions.
The EUT transmits a self node management information parameter read frame(response) on each of the 10 occasions.
NN
O (in case the command server functions in TCP is implemented)
O (in case the command server functions in TCP is implemented)
O (in case the command server functions in TCP is implemented)
O (in case the command server functions in TCP is implemented)
O (in case the command server functions in TCP is implemented)
EUT
Classes 3
Node number
1(By class,and 4
Token watchdog time
(50)
parameters
Allowable minimum(10)
are different)
frame interval time

JEM 1480:2023– 266 –

Table 84 – Connection open, close (continued)
Setting parameter(node)(continued)

EUT(By class,parameters
are different)(continued)

Classes 3
and 4(continued)

Class 5Classes 6
and 7

Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting (forClass 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(By class of
EUT,parameters
are different)

Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address04
016
optional
100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
To be calculated from thenumber of input slave points
in the EUT.
0
To be calculated from thenumber of input slave points
and output slave points inthe EUT.
3 (controller)
254
50
10
4
4
64
64
4 (flexible master)
254
50
10
Depends on the number of
output slave points in theEUT.
* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output slave
points in the EUT.
1 024

– 267 –JEM 1480:2023

Table 84 – Connection open, close (continued)
Setting parameter(node)(continued)

Test
equipment(By class of
EUT,parameters
are different)(continued)

Class 6
(continued)

Class 7

Setting parameter(test data)

Transmission frame

Reception frame

Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Interface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD

Data size
Contents of data
Interface
Node address ofsource side
(SNA)

1 024
1

Slave node number:
16#8001(flexible setting mode, Node
number: 1)
Input data address: 16#0000(area 1, address: 0)
Input data size: To be
calculated from the numberof input slave points in the
EUT.
Output data address:
Depends on the number of
output slave points in theEUT.
* 0 point: 16#0000(area 1, address: 0)* 1 point or more: 16#0100(area 1, address: 256)
Output data size: To be
calculated from the numberof output slave points in the
EUT.
Input status address:
16#8000(area 2, address: 0)
Output status address:
16#8400(area 2, address: 1 024)
3 (controller)
254
50
10
256
4
1 024
64
TCP setting tool interface
254

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 026 (self nodemanagement information
parameter read request)
0NA
TCP setting tool interface
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

JEM 1480:2023– 268 –

Table 84 – Connection open, close (continued)
Setting parameter(test data)(continued)

Reception frame(continued)

Node number ofdestination side
(DNA)
TCD

Response time limit(from request frametransmission to response
frame reception)

254

65 226 (self nodemanagement information
parameter read response)
0 (normal)

Type of response
message (M_RLT)
Data size
Contents of data
1s

64
optional (no evaluation)

Table 85 – Frame sequence number
Test number

V3-004

Major test group

General purpose command server function

Test group

Basic operation test (TCP)

Test objects

Frame sequence number

Test procedure

Class 1

Start the EUT, then start the test equipment.
The test equipment (TCP setting tool interface) opens a connection to the EUT.
The test equipment (TCP setting tool interface) transmits a node management
information parameter read frame (request) 5 times.
The test equipment closes the connection to the EUT.
Confirm that the EUT transmits a self node management information parameter readframe (response) each time, with its sequence number which is the same as thesequence number of the corresponding request frame.
N

Class 2

N

Class 3O (in case the command server functions in TCP is implemented)

Class 4O (in case the command server functions in TCP is implemented)

Class 5O (in case the command server functions in TCP is implemented)

Class 6O (in case the command server functions in TCP is implemented)

Class 7O (in case the command server functions in TCP is implemented)

Evaluation criteria

Test
necessity
identified
by theEUT classSetting parameter(node)EUT(By class,parameters
are different)

Classes 3
and 4

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

(10)

Area 2 data top
address
Area 2 data size

0

IO allocation setting(for Class 4)

optional0416

– 269 –JEM 1480:2023

Table 85 – Frame sequence number (continued)
Setting parameter(node)(continued)

EUT(By class,parameters
are different)(continued)

Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum frameinterval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node number
Token watchdog time
Allowable minimum frameinterval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(By class of
EUT,parameters
are different)

Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum frameinterval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum frameinterval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
To be calculated from thenumber of input slave
points in the EUT.
0
To be calculated from thenumber of input slave
points and output slave
points in the EUT.
3 (controller)
254
50
10
4
4
64
64
4 (flexible master)
254
50
10
Depends on the number of
output slave points in theEUT.
* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output slave
points in the EUT.
1 024
1 024
1

Slave node number:
16#8001(flexible setting mode,
Node number: 1)
Input data address:
16#0000(area 1, address: 0)

JEM 1480:2023– 270 –

Table 85 – Frame sequence number (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(By class of
EUT,parameters
are different)(continued)

Class 6
(continued)

IO allocation setting(slave setting)(continued)

Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum frameinterval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of source
side
(SNA)
Node number ofdestination side(DNA)

Transmission frame

TCD

Reception frame

Data size
Contents of data
Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD

Type of response
message (M_RLT)
Data size
Contents of data

Input data size: To be
calculated from the numberof input slave points in the
EUT.
Output data address:
Depends on the number of
output slave points in theEUT.
* 0 point: 16#0000(area 1, address: 0)* 1 point or more: 16#0100(area 1, address: 256)
Output data size: To be
calculated from the numberof output slave points in the
EUT.
Input status address:
16#8000(area 2, address: 0)
Output status address:
16#8400(area 2, address: 1 024)
3 (controller)
254
50
10
256
4
1 024
64
TCP setting tool interface
85

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 026 (self nodemanagement information
parameter read request)
0NA
TCP setting tool interface
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 226 (self nodemanagement information
parameter read response)
0 (normal)
64
optional (no evaluation)

– 271 –JEM 1480:2023

Table 85 – Frame sequence number (continued)
Setting parameter(test data)(continued)

Response time limit(from request frametransmission to response
frame reception)

1s

Table 86 – Frame sequence number skip
Test number

V3-005Major test group

General purpose command server function

Test group

Basic operation test (TCP)

Test objects

Frame sequence number skip

Test procedure

Class 1

Start the EUT, then start the test equipment.
The test equipment (TCP setting tool interface) opens a connection to the EUT.
The test equipment (TCP setting tool interface) transmits a self node management
information parameter read frame (request).
The test equipment (TCP setting tool interface) transmits another self nodemanagement information parameter read frame (request) with its sequence number
added by 10 to that of the transmitted last time.
The test equipment closes the connection to the EUT.
Confirm that the EUT transmits a self node management information parameter readframe (response) each time, with a sequence number which is in agreement with asequence number of the request frame.
N

Class 2

N

Class 3O (in case the command server functions in TCP is implemented)

Class 4O (in case the command server functions in TCP is implemented)

Class 5O (in case the command server functions in TCP is implemented)

Class 6O (in case the command server functions in TCP is implemented)

Class 7O (in case the command server functions in TCP is implemented)

Evaluation criteria

Test
necessity
identified
by theEUT classSetting parameter(node)EUT(By class,parameters
are different)

Classes 3
and 4Class 5

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

(10)

Area 2 data top
address
Area 2 data size

0

IO allocation setting (forClass 4)
Node number

optional

Token watchdog time(100)

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

(10)

Area 2 data top
address
Area 2 data size

1 024

0
4

16

100

256
256

1 024

JEM 1480:2023– 272 –

Table 86 – Frame sequence number skip (continued)
Setting parameter(node)(continued)

EUT(By class,parameters
are different)(continued)

Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(By class of
EUT,parameters
are different)

Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

1
(50)
(10)
0
To be calculated from thenumber of input slave points
in the EUT.
0
To be calculated from thenumber of input slave points
and output slave points in the
EUT.
3 (controller)
254
50
10
4
4
64
64
4 (flexible master)
254
50
10
Depends on the number of
output slave points in theEUT.
* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output slave
points in the EUT.
1 024
1 024
1

Slave node number:
16#8001(flexible setting mode, Node
number: 1)
Input data address: 16#0000(area 1, address: 0)
Input data size: To be
calculated from the numberof input slave points in theEUT.

– 273 –JEM 1480:2023

Table 86 – Frame sequence number skip (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(By class of
EUT,parameters
are different)(continued)

Class 6
(continued)

IO allocation setting(slave setting)(continued)

Class 7

Implementation class

Output data address:
Depends on the number of
output slave points in theEUT.
* 0 point: 16#0000(area 1, address: 0)
1 point or more: 16#0100(area 1, address: 256)
Output data size: To be
calculated from the numberof output slave points in the
EUT.
Input status address:
16#8000(area 2, address: 0)
Output status address:
16#8400(area 2, address: 1 024)
3 (controller)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

10

Area 2 data top
address
Area 2 data size

1 024

Interface

TCP setting tool interface

Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)

85

TCD

Data size

65 026 (self nodemanagement information
parameter read request)
0

Contents of data

NAInterface

TCP setting tool interface

Node address ofsource side
(SNA)

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)
TCD

254

Transmission frame

Reception frame

Type of response
message(M_RLT)

256
4

64

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

65 226 (self nodemanagement information
parameter read response)
0 (normal)

Data size

64

Contents of data

optional (no evaluation)

JEM 1480:2023– 274 –

Table 86 – Frame sequence number skip (continued)
Setting parameter(test data)

Response time limit(from request frametransmission to response
frame reception)1s

– 275 –c)

JEM 1480:2023

Operation test of single setting tool (UDP) Table 87 to Table 102 show the test tables for the
Operation test of single setting tool (UDP).
Table 87 – IO allocation setting, read

Test number
Major test group

V3-006
General purpose command server function

Test group

Operation test of single setting tool (UDP)

Test objects

IO allocation setting, read

Test procedure

Class 1

Start the EUT, then start the test equipment.
The test equipment (UDP setting tool interface) transmits an IO allocation setting frame(request).
Receiving an IO allocation setting normal response frame from the EUT, the test
equipment (UDP setting tool interface) transmits an IO allocation read frame (request).
The tests are carried out for 3 patterns (number of control slaves: 0, 1 and 248).
Confirm the followings:
The EUT transmits an IO allocation setting response frame, responding to the IO
allocation setting request transmission from the test equipment.
The contents of the IO allocation setting frame (response) is as follows (Criteria aredifferent by the EUT class).
NOTE: In case of Class 3 (flexible master function implemented) and 4: normal
response (M_RLT: 0)
NOTE: In case of Class 3 (flexible master function not-implemented): normal response(M_RLT:0), not-implemented response (M_RL: 2), or no response.
* In case of normal response, the contents of data are correct.
The EUT transmits an IO allocation read response frame, responding to the IO
allocation read request transmission from the test equipment.
The contents of the IO allocation read frame (response) is as follows (Criteria aredifferent by the EUT class).
NOTE: In case of Class 3 (flexible master function implemented) and 4: normal
response (M_RLT: 0)
NOTE: In case of Class 3 (flexible master function not-implemented): normal response(M_RLT: 0), not-implemented response (M_RLT: 2) or no response.
* In case of normal response, the contents of data are correct.
In case of Class 3 (flexible master function implemented) and 4: The EUT does nottransmit any solicitation frames, if the number of control slaves in the IO allocation
setting is 0.
In case of Class 3 (flexible master function implemented) and 4: The EUT transmits ansolicitation frame, if the number of control slaves in the IO allocation setting is not 0.
In case of Class 3 (flexible master function not-implemented): The EUT does nottransmit any solicitation frame.
N

Class 2

N

Class 3

R

Class 4

R

Class 5N

Class 6N

Class 7N

Evaluation criteria

Test
necessity
identified
by the
EUT
class

Setting parameter(node)

Pattern 1 (number of control slaves:0)，Pattern 2 (number of control slaves:1)
EUT
Classes 3
Node number
1
and 4
Token watchdog time
(50)
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

(10)

Area 2 data top
address

1 024

256
16

JEM 1480:2023– 276 –

Table 87 – IO allocation setting, read (continued)
Setting parameter(node)(continued)

EUT(continued)

Classes 3
and 4(continued)

Test
equipment

Classes 3
and 4

Area 2 data size

64

IO allocation setting (forClass 4)
Implementation classoptional

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

10

Area 2 data top
address
Area 2 data size64

3(controller)

4
4

64

Pattern 3 (number of control slaves:248)
EUT

Test
equipment

Setting parameter(test data)

Classes 3
and 4Classes 3
and 4

Node number

249

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

(10)

Area 2 data top
address
Area 2 data size

4 096

IO allocation setting (forClass 4)
Implementation classoptional

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

10

Area 2 data top
address
Area 2 data size

64

256
248

3 968

3 (controller)

4
4

64

Pattern 1 (number of control slaves: 0)
IO allocation
setting

Requestframe

Interface

UDP setting tool interface

Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD

254

1

Data size

65 018 (IO allocation setting
request)24

Contents of data

Setting number: 0
Number of control slaves(total): 0
Lock ID: 0
Lock timeout setting value: 1

– 277 –JEM 1480:2023

Table 87 – IO allocation setting, read (continued)
Setting parameter(test data)(continued)

IO allocation
setting(continued)

Requestframe(continued)

Contents of data(continued):Response
frameInterface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

IO allocation
read

Requestframe:Response
frameInterface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)

Slave node number: 0
Input data address: 0
Input data size: 0
Output data address: 0
Output data size: 0
Input status address: 0
Output status address: 0
UDP setting tool interface
1

254
65 218 (IO allocation setting
response)
Depends on EUT class.
* Class 3(flexible masterfunction implemented) and
4: 0 (normal)* Class 3 (flexible masterfunction not-implemented):
0 (normal) or 2 (Nonimplementation)
8
Result: 0(normal)
Information: optional (noevaluation)
Lock ID: optional (noevaluation)
UDP setting tool interface
254

1
65 019 (IO allocation readrequest)4
Setting number: 1
UDP setting tool interface
1

254
65 219 (IO allocation read
response)
Depends on EUT class.
* Class 3 (flexible masterfunction implemented) and
4: 0(normal)* Class 3 (flexible masterfunction not-implemented):
0 (normal) or 2 (Nonimplementation)
20

JEM 1480:2023– 278 –

Table 87 – IO allocation setting, read (continued)
Setting parameter(test data)(continued)

IO allocation
read(continued):Response
frame(continued)

Contents of data
(M_RLT: 0)

Pattern 2 (number of control slaves: 1)
IO allocation
RequestInterfacesetting
frame
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

:Response
frameInterface
Node address ofsource side
(SNA)
Node number ofdestination side(DNA)

Setting number: 0
Number of control slaves: 0
Slave node number: optional(no evaluation)
Input data address: optional(no evaluation)
Input data size: optional (noevaluation)
Output data address:
optional (no evaluation)
Output data size: optional(no evaluation)
Input status address:
optional (no evaluation)
Output status address:
optional (no evaluation)
UDP setting tool interface
254

1

65 018 (IO allocation setting
request)24
Setting number: 1
Number of control slaves(total): 1
Lock ID: 0
Lock timeout setting value: 2
Slave node number:
16#800D(flexible setting mode, Node
number: 13)
Input data address: 16#0118(area 1, address: 280)
Input data size: 4
Output data address:
16#010C(area 1, address: 268)
Output data size: 4
Input status address:
16#8460(area 2, address: 1 120)
Output status address:
16#8430(area 2, address: 1 072)
UDP setting tool interface
1254

– 279 –JEM 1480:2023

Table 87 – IO allocation setting, read (continued)
Setting parameter(test data)(continued)

IO allocation
setting(continued):Response
frame(continued)

TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

IO allocation
read

Requestframe:Response
frameInterface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD

65 218 (IO allocation setting
response)
Depends on EUT class.
•Class 3 (flexible masterfunction implemented) and 4:
0 (normal)•Class 3( flexible masterfunction not-implemented): 0(normal) or 2 (Nonimplementation)
8
Result: 0 (normal)
Information: optional (noevaluation)
Lock ID: not 0
UDP setting tool interface
254

1

Data size

65 019 (IO allocation readrequest)
4

Contents of data

Setting number: 1

Interface

UDP setting tool interface

Node address ofsource side
(SNA)

1

Node number ofdestination side
(DNA)
TCD

254

Type of response
message(M_RLT)

Data size(M_RLT: 0)

65 219 (IO allocation read
response)
Depends on EUT class.
* Class 3 (flexible masterfunction implemented) and
4: 0 (normal)* Class 3 (flexible masterfunction not-implemented):
0 (normal) or 2 (Nonimplementation)
20

JEM 1480:2023– 280 –

Table 87 – IO allocation setting, read (continued)
Setting parameter(test data)(continued)

IO allocation
read(continued):Response
frame(continued)

Contents of data
(M_RLT: 0)

Setting number: 1
Number of control slaves: 1
Slave node number:
16#800D(flexible setting mode, Node
number: 12)
Input data address: 16#0118(area 1, address: 280)
Input data size: 4
Output data address:
16#010C(area 1, address: 268)
Output data size: 4

Solicitation frame

Node address ofsource side
(SNA)
TCD

Input status address:
16#8460(area 2, address: 1 120)
Output status address:
16#8430(area 2, address: 1 072)1

65 017 (solicitation frame)

Data size

16

Contents of data

Slave node number:
16#800D(flexible setting mode, Node
number: 12)
Input data address: 16#0118(area 1, address: 280)
Input data size: 4
Output data address:
16#010C(area 1, address: 268)
Output data size: 4
Input status address:
16#8460(area 2, address: 1 120)
Output status address:
16#8430(area 2, address: 1 072)
Lock ID: 1

Pattern 3(number of control slaves: 248)
IO allocation
setting(N:0 to 247)

Requestframe

Interface

UDP setting tool interface

Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)

254

TCD

65 018 (IO allocation setting
request)24

Data size249

– 281 –JEM 1480:2023

Table 87 – IO allocation setting, read (continued)
Setting parameter(test data)(continued)

IO allocation
setting(N:0 to 247)
(continued)

Requestframe(continued)

Contents of data

:Response
frameInterface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

Setting number: N + 1
Number of control
slaves(total): 248
Lock ID: Depends on setting
number.
* 1: 0* 2 to 248: the response
Lock ID of setting number
1
Lock timeout setting value:
496
Slave node number:
16#8001 + N(flexible setting mode, Node
number: 1 + N)
Input data address: 16#0000+N(area 1, address: N)
Input data size: 1
Output data address:
16#0100 + N(area 1, address: 256 + N)
Output data size: 1
Input status address:
16#8000 + (16 x N)
(area 2, address: 16 x N)
Output status address:
16#9000 + (16 x N)
(area 2, address: 4 096 + (16x N))
UDP setting tool interface
249

254

65 218(IO allocation setting
response)
Depends on EUT class.
* Class 3 (flexible masterfunction implemented) and
4: 0(normal)* Class 3 (flexible masterfunction not-implemented):
0 (normal) or 2 (Nonimplementation)
8
Result:* N:0 to 246: 1 (continue)* N: 247: 0 (normal)
Information: optional (noevaluation)
Lock ID: Any value except
zero that is the same at all N:
0 through 247

JEM 1480:2023– 282 –

Table 87 – IO allocation setting, read (continued)
Setting parameter(test data)(continued)

IO allocation
read(N:0 to 247)

Requestframe

Response
frame

Interface

UDP setting tool interface

Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)

254

TCD
Data size

65 019 (IO allocation readrequest)
4

Contents of data

Setting number: N + 1

Interface

UDP setting tool interface

Node address ofsource side
(SNA)

1

Node number ofdestination side
(DNA)
TCD

254

Type of response
message(M_RLT)

Data size( M_RLT: 0)
Contents of data
( M_RLT: 0)249

65 219 (IO allocation read
response)
Depends on EUT class.
* Class 3 (flexible masterfunction implemented) and
4: 0 (normal)* Class 3 (flexible masterfunction not-implemented):
0 (normal) or 2 (Nonimplementation)
20
Setting number: N + 1
Number of control slaves:
248
Slave node number:
16#8001 + N(flexible setting mode, Node
number: 1 + N)
Input data address: 16#0000+N(area 1, address: N)
Input data size: 1
Output data address:
16#0100 + N(area 1, address: 256 + N)
Output data size: 1
Input status address:
16#8000 + (16 x N)
(area 2, address: 16 x N)
Output status address:
16#9000 + (16 x N)
(area 2, address: 4 096 + (16x N))

– 283 –JEM 1480:2023

Table 87 – IO allocation setting, read (continued)
Setting parameter(test data)(continued)

Solicitation
frame (divided
by four)First frameof thedivision

Node address ofsource side
(SNA)
TCD

249

Data size

1 024

Contents of data (64nodes)(N: 0 to 63)

Slave node number:
16#8001 + N(flexible setting mode, Node
number: 1 + N)
Input data address: 16#0000+N(area 1, address: N)
Input data size: 1

65 017 (solicitation frame)

Output data address:
16#0100 + N(area 1, address: 256 + N)
Output data size: 1
Input status address:
16#8000 + (16 x N)
(area 2, address: 16 x N)
Output status address:
16#9000 + (16 x N)
(area 2, address: 4 096 + (16x N))
Lock ID: 249
Secondframe of thedivision

Node address ofsource side
(SNA)
TCD

249

Data size

1 024

Contents of data (64nodes )
(N: 0 to 63)

Slave node number:
16#8041 + N(flexible setting mode, Node
number: 65 + N)
Input data address: 16#0040+N(area 1, address: 64 + N)
Input data size: 1

65 017 (solicitation frame)

Output data address:
16#0140 + N(area 1, address: 320 + N)
Output data size: 1
Input status address:
16#8400 + (16 x N)
(area 2, address: 1 024 + (16x N))
Output status address:
16#9400 + (16 x N)
(area 2, address: 5 120 + (16x N))
Lock ID: 249

JEM 1480:2023– 284 –

Table 87 – IO allocation setting, read (continued)
Setting parameter(test data)(continued)

Solicitation
frame (divided
by four)(continued)

Third frameof thedivision

Node address ofsource side
(SNA)
TCD

249

Data size

1 024

Contents of data (64nodes)(N:0 to 63)

Slave node number:
16#8081 + N(flexible setting mode, Node
number: 129 + N)
Input data address: 16#0080+N(area 1, address: 128 + N)
Input data size: 1

65 017 (solicitation frame)

Output data address:
16#0180 + N(area 1, address: 384 + N)
Output data size: 1
Input status address:
16#8800 + (16 x N)
(area 2, address: 2 048 + (16x N))
Output status address:
16#9800 + (16 x N)
(area 2, address: 6 144 + (16x N))
Lock ID:249
Fourth frameof thedivision

Node address ofsource side
(SNA)
TCD

249

Data size

896

Contents of data (56nodes)(N:0 to 55)

Slave node number:
16#80C1 + N(flexible setting mode, Node
number: 193 + N)
Input data address: 16#00C0+N(area 1, address: 192 + N)
Input data size: 1

65 017 (solicitation frame)

Output data address:
16#01C0 + N(area 1, address: 448 + N)
Output data size: 1
Input status address:
16#8C00 + (16 x N)
(area 2, address: 3 072 + (16x N))
Output status address:
16#9C00 + (16 x N)
(area 2, address: 7 168 + (16x N))
Lock ID:249
Response time limit(from request frametransmission to response
frame reception)1s

– 285 –JEM 1480:2023

Table 88 – Token retention time measurement start/end
Test number
Major test group

V3-007
General purpose command server function

Test group

Operation test of single setting tool (UDP)

Test objects

Token retention time measurement start/end

Test procedure

Start the EUT, then start the test equipment. Then start the dummy node.
The test equipment (UDP setting tool interface) transmits a token retention timemeasurement start frame (request).
The test equipment disengages from the network. (Stop transmitting the token frame.)
The test equipment rejoins the network.
The test equipment (UDP setting tool interface) transmits a token retention timemeasurement end frame (request), 60 seconds later than a token retention timemeasurement start frame (normal response) reception from the EUT.
The test equipment transmits a log data read message (request).
Confirm the followings:
The EUT transmits a token retention time measurement start response frame, to thetoken retention time measurement start request transmission from the test equipment.
The token retention time measurement start response frame is a normal response(M_RLT: 0).
The EUT transmits a token retention time measurement end response frame, to thetoken retention time measurement end request transmission from the test equipment.
The token retention time measurement end frame (response) is a normal response(M_RLT: 0), and contents of data are as follows.
* The number of tokens during measuring the token retention time is not 0.
The EUT transmits a log data read response message, to the log data read request
transmission from the test equipment.
The log data read frame (response) is a normal response (M_RLT: 0), and contents ofdata are as follows.
* The measuring time for token retention time
* The number of tokens during measuring the token retention time is not 0.
N

Evaluation criteria

Test
necessity
identified
by the EUT
class

Class
1
Class
2
Class
3
Class
4
Class
5
Class
6
Class
7

N
R
O (in case the command server load measure function is implemented)
O (in case the command server load measure function is implemented)
O (in case the command server load measure function is implemented)
O (in case the command server load measure function is implemented)

JEM 1480:2023– 286 –

Table 88 – Token retention time measurement start/end (continued)
Setting parameter(node)EUT(By class,parameters aredifferent)

Classes 3
and 4Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

(10)

Area 2 data top
address
Area 2 data size

0

IO allocation setting (forClass 4)
Node number

optional

Token watchdog time(100)

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

(10)

Area 2 data top
address
Area 2 data size

1 024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

(10)

Area 2 data top
address
Area 2 data size

Testequipment(By class of
EUT,parameters aredifferent)

Classes 3, 4
and 5Class 6

0
4

16

100

256
256

1 024

0
To be calculated from thenumber of input slave points
in the EUT.
0

Implementation class

To be calculated from thenumber of input slave points
and output slave points inthe EUT.
3(controller)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

10

Area 2 data top
address
Area 2 data size

64

Implementation class4 (flexible master)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time

10

4
4

64

– 287 –JEM 1480:2023

Table 88 – Token retention time measurement start/end (continued)
Setting parameter(node)(continued)

Test
equipment(By class of
EUT,parameters
are different)(continued)

Class 6
(continued)

Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Dummy node

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Depends on the number of
output slave points in theEUT.
* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output slave
points in the EUT.
1 024
1 024
1

Slave node number:
16#8001(flexible setting mode, Node
number: 1)
Input data address: 16#0000(area 1, address: 0)
Input data size: To be
calculated from the numberof input slave points in the
EUT.
Output data address:
Depends on the number of
output slave points in theEUT.
* 0 point: 16#0000(area 1, address: 0)* 1 point or more: 16#0100(area 1, address: 256)
Output data size: To be
calculated from the numberof output slave points in the
EUT.
Input status address:
16#8000(area 2, address: 0)
Output status address:
16#8400(area 2, address: 1 024)
3 (controller)
254
50
10
256
4
1 024
64
3 (controller)
2
50
10
0
0

JEM 1480:2023– 288 –

Table 88 – Token retention time measurement start/end (continued)
Setting parameter(node)(continued)

Dummy nodeToken
retention timemeasurement
start

Requestframe:Response
frame

Area 2 data top
address
Area 2 data size
Interface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)

0

TCD

65 020 (token retention timemeasurement start request)
0NA
UDP setting tool interface
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD

Type of response
message (M_RLT)

Setting parameter(test data)Token
retention timemeasurement
end

Requestframe:Responseframe

0
UDP setting tool interface
254

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

254

65 220 (token retention timemeasurement start
response)
0 (normal)

Data size( M_RLT: 0)0

Contents of data
Interface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)

NA
UDP setting tool interface
254

TCD

65 021 (token retention timemeasurement end request)
0NA
UDP setting tool interface
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

254

65 221 (token retention timemeasurement end response)
0 (normal)

Data size( M_RLT: 0)76

Contents of data
( M_RLT: 0)

Number of tokens during
measuring the token
retention time: not 0

– 289 –JEM 1480:2023

Table 88 – Token retention time measurement start/end (continued)
Setting parameter(test data)(continued)

Log data read

Requestmessage

Response
message

InterfaceFL-net message

Node address ofsource side
(SNA)
Node number ofdestination side (DNA)

254

TCD
Data size

65 013 (log data readrequest)0

Contents of data

NAInterfaceFL-net message

Node address ofsource side
(SNA)

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)
TCD

254

Type of response
message(M_RLT)

Response time limit(from request frametransmission to response
frame reception)

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

65 213 (log data read
response)
0 (normal)

Data size

512

Contents of data

Measuring time for token
retention time: (equal totoken retention timemeasurement end response)
Number of tokens during
measuring the token
retention time: not 0

1s

JEM 1480:2023– 290 –

Table 89 – General purpose communication data sender log measurement start/end
Test number

V3-008Major test group

General purpose command server function

Test group

Operation test of single setting tool (UDP)

Test objects

General purpose communication data sender log measurement start/end

Test procedure

Class 1

Start the EUT, then start the test equipment.
The test equipment transmits general purpose communication data.
The test equipment (UDP setting tool interface) transmits a general purpose
communication data sender log measurement start frame (request).
The test equipment transmits general purpose communication data (patterns 1 to 11).
The test equipment (UDP setting tool interface) transmits a token retention timemeasurement end frame (request), 60 seconds later than a general purpose
communication data sender log measurement start normal response frame reception
from the EUT.
The test equipment transmits a log data read message (request).
Confirm the followings:
The EUT transmits a general purpose communication data sender log measurement
start frame (response), to the general purpose communication data sender log
measurement start request transmission from the test equipment.
The general purpose communication data sender log measurement start frame(response) is a normal response (M_RLT: 0).
The EUT transmits a general purpose communication data sender log measurement
end frame (response), to the general purpose communication data sender log
measurement end request transmission from the test equipment.
The general purpose communication data sender log measurement end frame(response) is a normal response (M_RLT: 0).
The EUT transmits a log data read message (response), to the log data read request
transmission from the test equipment.
The log data read message (response) is a normal response (M_RLT: 0), and contentsof data are as follows.
* The measuring time for general purpose communication data sender log* The receiving counters (IP1 to IP10) are equal to the general purpose communication
data sender log measurement stop response.
N

Class 2

N

Class 3

R

Class 4O (in case the command server load measure function is implemented)

Class 5O (in case the command server load measure function is implemented)

Class 6O (in case the command server load measure function is implemented)

Class 7O (in case the command server load measure function is implemented)

Evaluation criteria

Test
necessity
identified
by theEUT class– 291 –JEM 1480:2023

Table 89 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(node)EUT(By class,parameters
are different)

Classes 3
and 4Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

(10)

Area 2 data top
address
Area 2 data size

0

IO allocation setting (forClass 4)
Node number

optional

Token watchdog time(100)

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

(10)

Area 2 data top
address
Area 2 data size

1 024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

(10)

Area 2 data top
address
Area 2 data size

Testequipment(By class of
EUT,parameters
are different)

Classes 3, 4
and 5

0
4

16

100

256
256

1 024

0
To be calculated from thenumber of input slave points
in the EUT.
0

Implementation class

To be calculated from thenumber of input slave points
and output slave points inthe EUT.
3 (controller)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

10

Area 2 data top
address
Area 2 data size

64

4
4

64

JEM 1480:2023– 292 –

Table 89 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(node)(continued)

Test
equipment(By class of
EUT,parameters
are different)(continued)

Class 6

Implementation class4 (flexible master)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top
address

10

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Depends on the number of
output slave points in theEUT.
* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output slave
points in the EUT.
1 024
1 024
1

Slave node number:
16#8001(flexible setting mode, Node
number: 1)
Input data address: 16#0000(area 1, address: 0)

Implementation class

Input data size: To be
calculated from the numberof input slave points in the
EUT.
Output data address:
Depends on the number of
output slave points in theEUT.
* 0 point: 16#0000(area 1, address: 0)* 1 point or more: 16#0100(area 1, address: 256)
Output data size: To be
calculated from the numberof output slave points in the
EUT.
Input status address:
16#8000(area 2, address: 0)
Output status address:
16#8400(area 2, address: 1 024)
3 (controller)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

10

Area 2 data top
address
Area 2 data size

1 024

256
4

64

– 293 –JEM 1480:2023

Table 89 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(test data)

Generalpurposecommunication
data senderlogmeasurement
start

Requestframe:Response
frameInterface
Node address ofsource side
(SNA)
Node number ofdestination side(DNA)

UDP setting tool interface
254

TCD

65 022 (general purpose
communication data sender
log measurement start
request)0NA
UDP setting tool interface
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD

Type of response
message(M_RLT)
Data size(M_RLT: 0)
Generalpurposecommunication
data

Pattern N(N:1 to 6)

Pattern 7

Pattern 8Contents of data
Interface
Source IP address
Destination IP address

Source port number
Destination port
numberData
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number
Destination port
numberData
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

254

65 222 (general purpose
communication data sender
log measurement start
response)
0 (normal)

0
NA
TCP
192.168.250.(248 + N)
Depends on EUT class.
* Classes 3, 4, 6 and 7:
192.168.250.1* Class 5: 192.168.250.100
54 998 + N
54 998 + N
optional
N timesUDP
1.2.3.4
1.2.3.255
10 000
10 001
optional
10 times
UDP
192.168.0.254
192.168.0.255
55 001JEM 1480:2023– 294 –

Table 89 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(test data)(continued)

Generalpurposecommunication
data(continued)

Pattern 8(continued)

Pattern 9

Pattern 10

Pattern 11

Generalpurposecommunication
data senderlogmeasurement
stop

Requestframe

Destination port
numberData
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number
Destination port
numberData
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number
Destination port
numberData
Number oftransmissions
Interface
Source IP address
Destination IP address

Source port number
Destination port
numberData
Number oftransmissions
Interface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD

:Response
frame

Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD

55 000
optional
9 timesUDP
192.168.250.125
192.168.250.255
55 00255 001
optional
8 timesUDP
123.45.6.78
123.45.6.255
55 00055 003
optional
7 times
TCP
192.168.250.200
Depends on EUT class.
* Classes 3, 4, 6 and 7:
192.168.250.1* Class 5: 192.168.250.100
55 00355 000
optional
6 times
UDP setting tool interface
254
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 023 (general purpose
communication data sender
log measurement stop
request)0NA
UDP setting tool interface
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254
65 223 (general purpose
communication data sender
log measurement stop
response)

– 295 –JEM 1480:2023

Table 89 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(test data)(continued)

General purpose
communication
data sender log
measurement
stop(continued):Response
frame(continued)

Log data read

Requestmessage

Response
messageType of response
message(M_RLT)
Data size(M_RLT: 0)0(normal)Contents of data
(M_RLT: 0)Interface
Node address ofsource side
(SNA)
Node number ofdestination side(DNA)

Optional(no evaluation)

TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)

65 013 (log data read request)
0NA
FL-net message
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

254

Data size
Contents of data

512
Measuring time for general
purpose communication data
sender log: (equal to general
purpose communication data
sender log measurement stop
response)
IP1: (equal to general purpose
communication data sender log
measurement stop response)
IP1 receiving counter: (equal togeneral purpose communication
data sender log measurement
stop response)
IP2: (equal to general purpose
communication data sender log
measurement stop response)IP2 receiving counter: (equal togeneral purpose communication
data sender log measurement
stop response)
IP3: (equal to general purpose
communication data sender log
measurement stop response)IP3 receiving counter: (equal togeneral purpose communication
data sender log measurement
stop response)
IP4: (equal to general purpose
communication data sender log
measurement stop response)

84

FL-net message
254

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

65 213 (log data read response)
0 (normal)

JEM 1480:2023– 296 –

Table 89 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(test data)(continued)

Log data read(continued)

Response
message(continued)

Response time limit(from request frametransmission to response
frame reception)

Contents of data(continued)

1s

IP4 receiving counter: (equal togeneral purpose communication
data sender log measurement
stop response)
IP5: (equal to general purpose
communication data sender log
measurement stop response)
IP5 receiving counter: (equal togeneral purpose communication
data sender log measurement
stop response)
IP6: (equal to general purpose
communication data sender log
measurement stop response)IP6 receiving counter: (equal togeneral purpose communication
data sender log measurement
stop response)
IP7: (equal to general purpose
communication data sender log
measurement stop response)
IP7 receiving counter: (equal togeneral purpose communication
data sender log measurement
stop response)
IP8: (equal to general purpose
communication data sender log
measurement stop response)
IP8 receiving counter: (equal togeneral purpose communication
data sender log measurement
stop response)
IP9: (equal to general purpose
communication data sender log
measurement stop response)
IP9 receiving counter: (equal togeneral purpose communication
data sender log measurement
stop response)
IP10: (equal to general purpose
communication data sender log
measurement stop response)
IP10 receiving counter: (equal togeneral purpose communication
data sender log measurement
stop response)

– 297 –JEM 1480:2023

Table 90 – Configuration parameter setting, self node setting information parameter
read
Test number
Major test group
Test group
Test objects
Test procedure

V3-009General purpose command server function
Operation test of single setting tool (UDP)
Configuration parameter setting, self node setting information parameter reada) Start the EUT, then start the test equipment.
b) The test equipment (UDP setting tool interface) transmits a configuration parametersetting frame (request).
c) After the configuration parameter setting normal response frame reception from the
EUT, the test equipment (UDP setting tool interface) transmits a self node setting
information parameter read frame (request).

JEM 1480:2023– 298 –

Table 90 – Configuration parameter setting, self node setting information parameterread (continued)
Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1

Confirm the followings:
The EUT transmits a configuration parameter setting frame (response), to theconfiguration parameter setting request transmission from the test equipment.
The contents of the configuration parameter setting frame (response) are as follows(Criteria are different by the EUT class).
* In case of Classes 3, 4 and 6: normal response (M_RLT: 0)* In case of Classes 5 and 7: normal response (M_RLT:0), not-implemented response(M_RLT: 2), or no response.
NOTE: In case of normal response, the contents of data equal to the request data.
The EUT transmits a self node setting information parameter read frame (response), tothe self node setting information parameter read request transmission from the test
equipment.
The contents of the self node setting information parameter read frame (response) are
as follows (Criteria are different by the EUT class).
* In case of Classes 3, 4,and 6: normal response (M_RLT: 0)* In case of Classes 5 and 7: normal response (M_RLT:0), not-implemented response(M_RLT: 2), or no response.
NOTE: In case of normal response, the contents of data equal to the configuration
parameter setting request data.
N

Class 2

N

Class 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)EUT(By class,parameters aredifferent)

Classes 3
and 4Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

4

Area 2 data top address

0

Area 2 data size

16

IO allocation setting (forClass 4)
Node number

optional

Token watchdog time(100)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

256

Area 2 data top address

1 024

Area 2 data size

1 024

Node number

1

Token watchdog time

(50)

0

100

256

– 299 –JEM 1480:2023

Table 90 – Configuration parameter setting, self node setting information parameterread (continued)
Setting parameter(node)(continued)

EUT(By class,parameters aredifferent)(continued)

Classes 6
and 7(continued)

Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

Testequipment(By class of
EUT,parameters aredifferent)

Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size
Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)(10)
0
To be calculated from thenumber of input slave points
in the EUT.
0
To be calculated from thenumber of input slave points
and output slave points in the
EUT.
3 (controller)
254
50
10
4
4
64
64
4 (flexible master)
254
50
10
Depends on the number of
output slave points in theEUT.
* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output slave
points in the EUT.
1 024
1 024
1
Slave node number:
16#8001(flexible setting mode, Node
number: 1)
Input data address: 16#0000(area 1, address: 0)
Input data size: To be
calculated from the numberof input slave points in the
EUT.
Output data address:
Depends on the number of
output slave points in theEUT.
* 0 point: 16#0000(area 1, address: 0)* 1 point or more: 16#0100(area 1, address: 256)
Output data size: To be
calculated from the numberof output slave points in the
EUT.

JEM 1480:2023– 300 –

Table 90 – Configuration parameter setting, self node setting information parameterread (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(By class of
EUT,parameters aredifferent)(continued)

Configuration
parameter
setting

Class 6
(continued)

IO allocation setting(slave setting)(continued)

Class 7

Implementation class

Input status address:
16#8000(area 2, address: 0)
Output status address:
16#8400(area 2, address: 1 024)
3 (controller)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top address

10

Area 1 data size

4

Area 2 data top address

1 024

Area 2 data size

64Interface

UDP setting tool interface

Node address of source
side
(SNA)
Node number ofdestination side
(DNA)

254

TCD

65 024 (configuration
parameter setting request)

Data size

28

Contents of data

Update flag: Depends on
EUT class.
* Classes 3 and 4:
16#000F* Classes 5, 6 and 7:
16#000E
Node name: “RenewNode1”

Requestframe:Response
frame

256

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

Interface

Common memory Area 1
data top address: 256
Common memory Area 1
data size: 128
Common memory Area 2
data top address: 4 096
Common memory Area 2
data size: 1 024
Token watchdog time: 200
Allowable minimum frameinterval time: 15
UDP setting tool interface

Node address of source
side
(SNA)

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

Node number ofdestination side
(DNA)
TCD

254

65 224 (configuration
parameter setting response)– 301 –JEM 1480:2023

Table 90 – Configuration parameter setting, self node setting information parameterread (continued)
Setting parameter(test data)(continued)

Configuration
parameter
setting(continued)

Response
frame(continued)

Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

Self nodesetting
information
parameter
read

Requestframe

Response
frame

Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD

Data size
Contents of data
Interface
Node address of source
side
(SNA)

Depends on EUT class* Classes 3, 4 and 6:0(normal)* Classes 5 and 7: 0
(normal) or 2 (Nonimplementation)
24
Node name: “RenewNode1”
Common memory Area 1
data top address: Depends
on EUT class.
* Classes 3, 4 and 5: 256* Classes 6, and7: 0
Common memory Area 1
data size: Depends on EUT
class.
* Classes 3 and 4: 128* Class 5: 256* Classes 6 and7: To be
calculated from the numberof input slave points in the
EUT.
Common memory Area 2
data top address: Depends
on EUT class.
* Classes 3 and 4: 4 096* Class 5: 1 024* Classes 6,and 7: 0
Common memory Area 2
data size: Depends on EUT
class.
* Classes 3,and 4: 1 024* Class 5: 1 024* Classes 6 and 7: To be
calculated from the numberof input slave points andoutput slave points in the
EUT.
Token watchdog time: 200
Allowable minimum frameinterval time: 15
UDP setting tool interface
254

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 027 (self node setting
information parameter readrequest)0NA
UDP setting tool interface
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

JEM 1480:2023– 302 –

Table 90 – Configuration parameter setting, self node setting information parameterread (continued)
Setting parameter(test data)(continued)

Self nodesetting
information
parameter
read(continued)

Response
frame(continued)

Node number ofdestination side
(DNA)
TCD

Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

Response time limit(from request frametransmission to response
frame reception)

1s

254

65 227 (self node setting
information parameter read
response)
Depends on EUT class.
* Classes 3, 4 and 6: 0
(normal)* Classes 5 and 7: 0
(normal) or 2 (Nonimplementation)
24
Common memory Area 1
data top address: Depends
on EUT class.
* Classes 3, 4 and 5: 256* Classes 6,and 7: 0
Common memory Area 1
data size: Depends on EUT
class.
* Classes 3,and 4: 128* Class 5: 256* Classes 6 and 7: To be
calculated from the numberof input slave points in the
EUT.
Common memory Area 2
data top address: Depends
on EUT class.
* Class 3 and 4: 4 096* Class 5: 1 024* Classes 6,and 7: 0
Common memory Area 2
data size: Depends on EUT
class.
* Classes 3 and 4: 1 024* Class 5: 1 024* Classes 6 and 7: To be
calculated from the numberof input slave points andoutput slave points in the
EUT.
Token watchdog time: 200
Allowable minimum frameinterval time: 15
Node name: “RenewNode1”

– 303 –JEM 1480:2023

Table 91 – Participating node management information parameter read
Test number

V3-010Major test group

General purpose command server function

Test group

Operation test of single setting tool (UDP)

Test objects

Participating node management information parameter read

Test procedure

Class 1

Start the EUT, then start the test equipment.
The test equipment (UDP setting tool interface) transmits a participating nodemanagement information parameter read frame (request, node number: EUT).
The test equipment (UDP setting tool interface) transmits a participating nodemanagement information parameter read frame (request, node number: test
equipment).
Confirm the followings:
The EUT transmits a response frame, to both of the request frames.
The two response frames are normal response (M_RLT: 0), and the contents of data
are correct.
N

Class 2

N

Class 3

R

Class 4

R

Class 5RClass 6N

Class 7N

Evaluation criteria

Test
necessity
identified
by theEUT classSetting parameter(node)

EUT

Classes 3
and 4Class 5

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

4

Area 2 data top address

0

Area 2 data size

16

IO allocation setting (forClass 4)
Node number

optional

Token watchdog time(100)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

256

Area 2 data top address

1 024

Area 2 data size

1 024

0

100

256

JEM 1480:2023– 304 –

Table 91 – Participating node management information parameter read (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment

Participating
node
management
information
parameter
read (Nodenumber: EUT)Classes 3, 4
and 5

Requestframe

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD

Data size
Contents of data

:Response
frameInterface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD

Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

3 (controller)
254
50
10
4
4
64
64
UDP setting tool interface
254

Depends on EUT class.
* Classes 3 and 4: 1
* Class 5: 100
65 025 (participating nodemanagement information
parameter read request)
4
Node number: Depends on
EUT class.
* Classes 3 and 4: 1
* Class 5: 100
UDP setting tool interface
Depends on EUT class.
* Classes 3 and 4: 1
* Class 5: 100
254

65 225 (participating nodemanagement information
parameter read response)
0 (normal)

20
Node number: Depends on
EUT class.
* Classes 3 and 4: 1
* Class 5: 100
Common Area 1 data top
address: Depends on EUT
class.
* Classes 3 and 4: 0
* Class 5: 256

– 305 –JEM 1480:2023

Table 91 – Participating node management information parameter read (continued)
Setting parameter(test data)(continued)

Participating
node
management
information
parameter
read
(Node
number:EUT)(continued)

Response
frame(continued)

Contents of data
(M_RLT: 0)(continued)

Participating
node
management
information
parameter
read(Node number:
test
equipment)

Requestframe

Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD

:Response
frame

Data size
Contents of data
Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD

Type of response
message(M_RLT)
Data size(M_RLT: 0)

Common Area 1 data size:
Depends on EUT class.
* Classes 3 and 4: 4
* Class 5: 256
Common Area 2 data top
address: Depends on EUT
class.
* Classes 3 and 4: 0
* Class 5: 1 024
Common Area 2 data size:
Depends on EUT class.
* Classes 3 and 4: 16* Class 5: 1 024
Allowable refresh cycle time:(no evaluation)
Token watchdog time: (noevaluation)
Allowable minimum frameinterval time: (no evaluation)
FA link status: (noevaluation)
UDP setting tool interface
254

Depends on EUT class.
* Classes 3 and 4: 1
* Class 5: 100
65 025 (participating nodemanagement information
parameter read request)
4
254
UDP setting tool interface
Depends on EUT class.
* Classes 3 and 4: 1
* Class 5: 100
254

65 225 (participating nodemanagement information
parameter read response)
0 (normal)

20

JEM 1480:2023– 306 –

Table 91 – Participating node management information parameter read (continued)
Setting parameter(test data)(continued)

Participating
node
management
information
parameter
read(Node number:
test
equipment)(continued):Response
frame(continued)

Contents of data
(M_RLT: 0)

Node number: 254
Common Area 1 data top
address: 4
Common Area 1 data size: 4
Common Area 2 data top
address: 64
Common Area 2 data size:
64
Allowable refresh cycle time:(no evaluation)
Token watchdog time: 50
Allowable minimum frameinterval time: 10
FA link status: (noevaluation)

Response time limit(from request frametransmission to response
frame reception)

1s

Table 92 – Self node management information parameter read
Test number

V3-011

Major test group

General purpose command server function

Test group

Operation test of single setting tool (UDP)

Test objects

Self node management information parameter read

Test procedure

Start the EUT, then start the test equipment.
The test equipment (UDP setting tool interface) transmits a self node management
information parameter read frame (request).
Confirm the followings:
The EUT transmits a response frame, to the request frame.
The response frame is normal response (M_RLT: 0), and the contents of data are
equal to the EUT setting parameter.

Evaluation criteria

– 307 –JEM 1480:2023

Table 92 – Self node management information parameter read (continued)
Test
necessity
identified
by theEUT class

Class 1N

Class 2

N

Class 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Setting parameter(node)EUT(By class,parameters
are different)

Classes 3
and 4Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

4

Area 2 data top address

0

Area 2 data size

16

Node name“TargetNode”

IO allocation setting (forClass 4)
Node number

optional

Token watchdog time(100)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

256

Area 2 data top address

1 024

Area 2 data size

1 024

Node name“TargetNode”

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

To be calculated from thenumber of input slave points
in the EUT.
0

Area 2 data top address
Area 2 data size

Testequipment(By class of
EUT,parameters
are different)

Classes 3, 4
and 5

0

100

256

0

Node nameTo be calculated from thenumber of input slave points
and output slave points in the
EUT.
“TargetNode”

Implementation class3 (controller)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time10

JEM 1480:2023– 308 –

Table 92 – Self node management information parameter read (continued)
Setting parameter(node)(continued)

Test
equipment(By class of
EUT,parameters
are different)(continued)

Classes 3, 4
and 5
(continued)
Class 6

Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

4
4
64
64
4 (flexible master)
254
50
10
Depends on the number of
output slave points in theEUT.
* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output slave
points in the EUT.
1 024
1 024
1

Slave node number:
16#8001(flexible setting mode, Node
number: 1)
Input data address: 16#0000(area 1, address: 0)
Input data size: To be
calculated from the numberof input slave points in the
EUT.
Output data address:
Depends on the number of
output slave points in theEUT.
* 0 point: 16#0000(area 1, address: 0)* 1 point or more: 16#0100(area 1, address: 256)
Output data size: To be
calculated from the numberof output slave points in the
EUT.
Input status address:
16#8000(area 2, address: 0)
Output status address:
16#8400(area 2, address: 1 024)
3 (controller)
254
50
10
256
4
1 024
64

– 309 –JEM 1480:2023

Table 92 – Self node management information parameter read (continued)
Setting parameter(test data)

Request frame:Response frame

Interface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD

Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD

Type of response
message(M_RLT)
Data size
Contents of data

UDP setting tool interface
254

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 026 (self node management
information parameter readrequest)0NA
UDP setting tool interface
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 226 (self node management
information parameter read
response)
0 (normal)
64
Node number: Depends on EUT
class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
Common memory Area 1 data
top address: Depends on EUT
class.
* Classes 3, 4, 6 and 7: 0
* Class 5: 256
Common memory Area 1 data
size: Depends on EUT class.
* Classes 3 and 4: 4
* Class 5: 256* Classes 6 and 7: To be
calculated from the number of
input slave points in the EUT.
Common memory Area 2 data
top address: Depends on EUT
class.
* Classes 3, 4, 6 and 7: 0
* Class 5: 1 024

JEM 1480:2023– 310 –

Table 92 – Self node management information parameter read (continued)
Setting parameter(test data)(continued):Response frame(continued)

Contents of data(continued)

Response time limit(from request frametransmission to response
frame reception)

1s

Common memory Area 2 data
size: Depends on EUT class.
* Classes 3 and 4: 16* Class 5: 1 024* Classes 6 and 7: To be
calculated from the number of
input slave points and output
slave points in the EUT.
Upper layer status: (noevaluation)
Token watchdog time: (noevaluation)
Allowable minimum frameinterval time: (no evaluation)
Vender code of node
information: Depends on EUT
specification (check by the test
executor).
Manufacturer model name:
Depends on EUT specification(check by the test executor).
Node name: “TargetNode”
Protocol type: 128
FA link status: (no evaluation)
Status of the self node: (noevaluation)
Identification of the self nodeclass: EUT class No.

Table 93 – Node reset
Test number
Major test group
Test group
Test objects
Test procedure

V3-012
General purpose command server function
Operation test of single setting tool (UDP)
Node reseta) Start the EUT, then start the test equipment. Then start the dummy node.
b) The test equipment (UDP setting tool interface) transmits a node reset frame (request).

Evaluation criteria

Confirm the followings.
a) The EUT transmits a response frame, to the request frame.
b) The response frame is as follows (Criteria are different by the EUT class).
* In case of Classes 3 through 5: normal response (M_RLT:0), not-implemented
response (M_RLT: 2), or no response.
* In case of Classes 6 and 7: normal response (M_RLT: 0).
c) In case of normal response, the EUT disengages from the network, then rejoins the
network within 10 seconds.
N
N
R
R
R
R
R

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

– 311 –JEM 1480:2023

Table 93 – Node reset (continued)
Setting parameter(node)EUT(By class,parameters
are different)

Classes 3
and 4Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
IO allocation setting (forClass 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(By class of
EUT,parameters
are different)

Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

1
(50)
(10)
0
4
0
16
optional
100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
To be calculated from thenumber of input slave points
in the EUT.
0
To be calculated from thenumber of input slave points
and output slave points in the
EUT.
3 (controller)
254
50
10
4
4
64
64
4 (flexible master)
254
50
10
Depends on the number of
output slave points in theEUT.
* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output slave
points in the EUT.

JEM 1480:2023– 312 –

Table 93 – Node reset (continued)
Setting parameter(node)(continued)

Test
equipment(By class of
EUT,parameters
are different)(continued)

Class 6
(continued)

Class 7

Dummy node

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

1 024
1 024
1

Slave node number:
16#8001(flexible setting mode, Node
number: 1)
Input data address: 16#0000(area 1, address: 0)
Input data size: To be
calculated from the numberof input slave points in the
EUT.
Output data address:
Depends on the number of
output slave points in theEUT.
* 0 point: 16#0000(area 1, address: 0)* 1 point or more: 16#0100(area 1, address: 256)
Output data size: Depends
on the number of output
slave points in the EUT.
Input status address:
16#8000(area 2, address: 0)
Output status address:
16#8400(area 2, address: 1 024)
3 (controller)
254
50
10
256
4
1 024
64
3 (controller)
2
50
10
0
0
0
0

– 313 –JEM 1480:2023

Table 93 – Node reset (continued)
Setting parameter(test data)

Request frame:Response frame

Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Response time limit(from request frametransmission to response
frame reception)

Data size(M_RLT: 0)
Contents of data
1s

UDP setting tool interface
254

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 028 (node reset request)
0NA
UDP setting tool interface
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 228 (node reset
response)
Depends on EUT class.
* Class 3, 4, 5: 0 (normal) or
2 (Non-implementation)* Classes 6 and 7: 0
(normal)0
NA

Table 94 – Network parameter read
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

V3-013General purpose command server function
Operation test of single setting tool (UDP)
Network parameter readStart the EUT, then start the test equipment.
The test equipment (UDP setting tool interface) transmits a network parameter readframe (request).
Confirm the followings.
The EUT transmits a response frame, to the request frame.
The response frame is normal response (M_RLT: 0), not-implemented response(M_RLT: 2), or no response. In case of normal response, the contents of data are
equal to the EUT setting parameter.
N
N
R
R
R
R
R

JEM 1480:2023– 314 –

Table 94 – Network parameter read (continued)
Setting parameter(node)EUT(By class,parameters
are different)

Classes 3
and 4Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

4

Area 2 data top address

0

Area 2 data size

16

Node name“TargetNode”

IO allocation setting (forClass 4)
Node number

optional

Token watchdog time(100)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

256

Area 2 data top address

1 024

Area 2 data size

1 024

Node name“TargetNode”

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

To be calculated from thenumber of input slave points
in the EUT.
0

Area 2 data top address
Area 2 data size

Testequipment(By class of
EUT,parameters
are different)

Classes 3, 4
and 5Class 6

0

100

256

0

Node nameTo be calculated from thenumber of input slave points
and output slave points in the
EUT.
“TargetNode”

Implementation class3 (controller)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top address

10

Area 1 data size

4

Area 2 data top address

64

Area 2 data size

64

Implementation class4 (flexible master)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time10

4

– 315 –JEM 1480:2023

Table 94 – Network parameter read (continued)
Setting parameter(node)(continued)

Test
equipment(By class of
EUT,parameters
are different)(continued)

Class 6
(continued)

Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Setting parameter(test data)

Request frame

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD

Depends on the number of
output slave points in theEUT.
* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output slave
points in the EUT.
1 024
1 024
1

Slave node number:
16#8001(flexible setting mode, Node
number: 1)
Input data address: 16#0000(area 1, address: 0)
Input data size: To be
calculated from the numberof input slave points in the
EUT.
Output data address:
Depends on the number of
output slave points in theEUT.
* 0 point: 16#0000(area 1, address: 0)* 1 point or more: 16#0100(area 1, address: 256)
Output data size: To be
calculated from the numberof output slave points in the
EUT.
Input status address:
16#8000(area 2, address: 0)
Output status address:
16#8400(area 2, address: 1 024)
3 (controller)
254
50
10
256
4
1 024
64
UDP setting tool interface
254

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 007 (network parameterread request)

JEM 1480:2023– 316 –

Table 94 – Network parameter read (continued)
Setting parameter(test data)(continued)

Request frame(continued):Response frame

Data size
Contents of data
Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)0
NA
UDP setting tool interface
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 207 (network parameterread response)
0 (normal) or 2 (Nonimplementation)
56
Node name: “TargetNode”
Vender code of node
information: Depends on
EUT specification (check by
the test executor).
Manufacturer model name ofnode information: Depends
on EUT specification (checkby the test executor ).
Area 1 data top address:
Depends on EUT class.
* Classes 3, 4, 6 and 7: 0
* Class 5: 256
Area 1 data size: Depends
on EUT class.
* Classes 3 and 4: 4
* Class 5: 256* Classes 6 and 7: To be
calculated from the numberof input slave points in the
EUT.
Area 2 data top address:
Depends on EUT class.
* Classes 3, 4, 6 and 7: 0
* Class 5: 1 024
Area 2 data size: Depends
on EUT class.
* Classes 3 and 4: 16* Class 5: 1 024* Classes 6 and 7: To be
calculated from the numberof input slave points andoutput slave points in the
EUT.
Token watchdog time: (noevaluation)
Allowable minimum frameinterval time: (no evaluation)
FA link status: (noevaluation)
Protocol type: 128
Upper layer status: (noevaluation)

– 317 –JEM 1480:2023

Table 94 – Network parameter read (continued)
Setting parameter(test data)(continued):Response frame(continued)

Contents of data
(M_RLT: 0)(continued)

Response time limit(from request frametransmission to response
frame reception)

1s

Allowable refresh cycle time:(no evaluation)
Refresh cycle measurement
time (current): (noevaluation)
Refresh cycle measurement
time (maximum): (noevaluation)
Refresh cycle measurement
time (minimum): (noevaluation)

Table 95 – Log data read
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V3-014General purpose command server function
Operation test of single setting tool (UDP)
Log data readStart the EUT, then start the test equipment.
The test equipment (UDP setting tool interface) transmits a log data read frame(request).
Confirm the followings.
The EUT transmits a response frame, to the request frame.
The response frame is normal response (M_RLT:0), not-implemented response(M_RLT: 2), or no response. In case of normal response, the contents of data are as
follows.
* The total number of transmission at the socket part is not 0.
* The total number of reception at the socket part is not 0.
N
N
R
R
R
R
R
EUT
Classes 3
Node number
1(By class,and 4
Token watchdog time
(50)
parameters
Allowable minimum(10)
are different)
frame interval time
Area 1 data top address 0
Area 1 data size
4
Area 2 data top address 0
Area 2 data size
16
IO allocation setting (for optional
Class 4)
Class 5
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time

JEM 1480:2023– 318 –

Table 95 – Log data read (continued)
Setting parameter(node)(continued)

EUT(By class,parameters
are different)(continued)

Class 5
(continued)

Classes 6
and 7

Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(By class of
EUT,parameters
are different)

Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

256
256
1 024
1 024
1
(50)
(10)
0
To be calculated from thenumber of input slave points
in the EUT.
0
To be calculated from thenumber of input slave points
and output slave points in the
EUT.
3 (controller)
254
50
10
4
4
64
64
4 (flexible master)
254
50
10
Depends on the number of
output slave points in theEUT.
* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output slave
points in the EUT.
1 024
1 024
1

Slave node number:
16#8001(flexible setting mode, Node
number: 1)
Input data address: 16#0000(area 1, address: 0)
Input data size: To be
calculated from the numberof input slave points in theEUT.

– 319 –JEM 1480:2023

Table 95 – Log data read (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(By class of
EUT,parameters
are different)(continued)

Request frame:Response frame

Class 6
(continued)

IO allocation setting(slave setting)(continued)

Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

Output data address:
Depends on the number of
output slave points in theEUT.
* 0 point: 16#0000(area 1, address: 0)* 1 point or more: 16#0100(area 1, address: 256)
Output data size: To be
calculated from the numberof output slave points in the
EUT.
Input status address:
16#8000(area 2, address: 0)
Output status address:
16#8400(area 2, address: 1 024)
3 (controller)
254
50
10
256
4
1 024
64
UDP setting tool interface
254

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 013 (log data readrequest)0NA
UDP setting tool interface
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 213 (log data read
response)
0 (normal) or 2 (Nonimplementation)
512
The total number oftransmission at the socket
part: not 0
The total number of reception
at the socket part: not 0

JEM 1480:2023– 320 –

Table 95 – Log data read (continued)
Setting parameter(test data)(continued)

Response time limit(from request frametransmission to response
frame reception)

1s

Table 96 – Log data clear
Test number

V3-015Major test group

General purpose command server function

Test group

Operation test of single setting tool (UDP)

Test objects

Log data clear

Test procedure

Class 1

Start the EUT, then start the test equipment.
The test equipment (UDP setting tool interface) transmits a log data clear frame(request).
After the log data clear frame (normal response) reception from the EUT, the test
equipment (UDP setting tool interface) transmits a log data read frame (request).
Confirm the followings.
The EUT transmits a response frame, to the log data clear request transmission fromthe test equipment.
The response frame is normal response (M_RLT:0), not-implemented response(M_RLT: 2), or no response.
The EUT transmits a response frame, to the log data read request transmission fromthe test equipment.
The response frame is normal response (M_RLT:0), not-implemented response(M_RLT: 2), or no response. In case of normal response, the contents of data are as
follows.
* The number of joining is 0.
N

Class 2

N

Class 3

R

Class 4

R

Class 5RClass 6

R

Class 7R

Evaluation criteria

Test
necessity
identified
by theEUT classSetting parameter(node)EUT(By class,parameters
are different)

Classes 3
and 4Class 5

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

4

Area 2 data top address

0

Area 2 data size

16

IO allocation setting (forClass 4)
Node number

optional

Token watchdog time(100)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

256

0

100

256

– 321 –JEM 1480:2023

Table 96 – Log data clear (continued)
Setting parameter(node)(continued)

EUT(By class,parameters
are different)(continued)

Class 5
(continued)

Area 2 data top address

1 024

Area 2 data size

1 024

Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

To be calculated from thenumber of input slave points
in the EUT.
0

Area 2 data top address
Area 2 data size

Testequipment(By class of
EUT,parameters
are different)

Classes 3
and 4，5Class 60

Implementation class

To be calculated from thenumber of input slave points
and output slave points in the
EUT.
3 (controller)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top address

10

Area 1 data size

4

Area 2 data top address

64

Area 2 data size

64

Implementation class4 (flexible master)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top address

10

4

Area 2 data top address

Depends on the number of
output slave points in theEUT.
* 0 point: 0* 1 point or more: 256
To be calculated from thenumber of output slave
points in the EUT.
1 024

Area 2 data size

1 024

IO allocation setting(number of control
slaves)IO allocation setting(slave setting)1

Area 1 data size

Slave node number:
16#8001(flexible setting mode, Node
number: 1)
Input data address: 16#0000(area 1, address: 0)
Input data size: To be
calculated from the numberof input slave points in the
EUT.

JEM 1480:2023– 322 –

Table 96 – Log data clear (continued)
Setting parameter(node)(continued)

Setting parameter(test data)

Test
equipment(By class of
EUT,parameters
are different)(continued)

Log data clear

Class 6
(continued)

IO allocation setting(slave setting)(continued)

Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD

Requestframe

Response
frame

Data size
Contents of data
Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data

Output data address:
Depends on the number of
output slave points in theEUT.
* 0 point: 16#0000(area 1, address: 0)* 1 point or more: 16#0100(area 1, address: 256)
Output data size: To be
calculated from the numberof output slave points in the
EUT.
Input status address:
16#8000(area 2, address: 0)
Output status address:
16#8400(area 2, address: 1 024)
3 (controller)
254
50
10
256
4
1 024
64
UDP setting tool interface
254

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 014 (log data clear
request)0NA
UDP setting tool interface
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 214 (log data clear
response)
0 (normal) or 2 (Nonimplementation)0NA– 323 –JEM 1480:2023

Table 96 – Log data clear (continued)
Setting parameter(test data)(continued)

Log data read

Requestframe:Response
frame

Response time limit(from request frametransmission to response
frame reception)

Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)1s

UDP setting tool interface
254

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 013 (log data readrequest)0NA
UDP setting tool interface
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 213 (log data read
response)
0 (normal) or 2 (Nonimplementation)
512
Number of joining:0

Table 97 – Message echo back
Test number

V3-016

Major test group

General purpose command server function

Test group

Operation test of single setting tool (UDP)

Test objects

Message echo back

Test procedure

Class 1

Start the EUT, then start the test equipment.
The test equipment (UDP setting tool interface) transmits a message echo back(request) with word data whose contents are incremental (+1) numbers starting with
16#11AA.
Confirm the followings:
The EUT transmits a response frame, to the request frame.
The response frame is normal response (M_RLT:0), not-implemented response(M_RLT: 2), or no response. In case of normal response, the contents of data are
equal to the request data.
N

Class 2

N

Class 3
Class 4R
R

Class 5RClass 6

R

Class 7R

Evaluation criteria

Test
necessity
identified
by theEUT class

JEM 1480:2023– 324 –

Table 97 – Message echo back (continued)
Setting parameter(node)EUT(By class,parameters
are different)

Classes 3
and 4Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

4

Area 2 data top address

0

Area 2 data size

16

IO allocation setting (forClass 4)
Node number

optional

Token watchdog time(100)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

256

Area 2 data top address

1 024

Area 2 data size

1 024

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

To be calculated from thenumber of input slave points
in the EUT.
0

Area 2 data top address
Area 2 data size

Testequipment(By class of
EUT,parameters
are different)

Classes 3, 4
and 5Class 6

0

100

256

0

Implementation class

To be calculated from thenumber of input slave points
and output slave points in the
EUT.
3 (controller)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top address

10

Area 1 data size

4

Area 2 data top address

64

Area 2 data size

64

Implementation class4 (flexible master)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top address

104

Depends on the number of
output slave points in theEUT.
* 0 point: 0* 1 point or more: 256

– 325 –JEM 1480:2023

Table 97 – Message echo back (continued)
Setting parameter(node)(continued)

Test
equipment(By class of
EUT,parameters
are different)(continued)

Class 6
(continued)

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Setting parameter(test data)

Request frame

Area 1 data size

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

To be calculated from thenumber of output slave
points in the EUT.
1 024
1 024
1

Slave node number:
16#8001(flexible setting mode, Node
number: 1)
Input data address: 16#0000(area 1, address: 0)
Input data size: To be
calculated from the numberof input slave points in the
EUT.
Output data address:
Depends on the number of
output slave points in theEUT.
* 0 point: 16#0000(area 1, address: 0)* 1 point or more: 16#0100(area 1, address: 256)
Output data size: To be
calculated from the numberof output slave points in the
EUT.
Input status address:
16#8000(area 2, address: 0)
Output status address:
16#8400(area 2, address: 1 024)
3 (controller)
254
50
10
256
4
1 024
64
UDP setting tool interface
254

Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 015 (message echo backrequest)512
Word data of incremental
numbers from 16#11AA

JEM 1480:2023– 326 –

Table 97 – Message echo back (continued)
Setting parameter(test data)(continued):Response frame

Response time limit(from request frametransmission to response
frame reception)

Interface
Node address of source
side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)
Data size(M_RLT:0)
Contents of data
(M_RLT:0)1s

UDP setting tool interface
Depends on EUT class.
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 215 (message echo backresponse)
0 (normal) or 2 (Nonimplementation)
512
Word data of incremental
numbers from 16#11AA

Table 98 – Byte block read, byte block write
Test number
Major test group

V3-017
General purpose command server function

Test group

Operation test of single setting tool (UDP)

Test object

Byte block read, byte block write

Test procedure

Start the EUT, and then start the test equipment.
The test equipment (UDP setting tool interface) transmits a byte block write frame(request) with word data whose contents are incremental (+1) numbers starting with
16#11AA.
The test equipment (UDP setting tool interface) transmits a byte block read frame(request) after receiving the byte block write frame (normal response) from the EUT.
Confirm the followings:
The EUT transmits a byte block write frame (response) to the byte block write requestfrom the test equipment.
The response frame is normal response (M_RLT: 0), not-implemented response(M_RLT: 2) or no response.
The EUT transmits a byte block read frame (response) to the byte block read requestfrom the test equipment.
The response frame is normal response (M_RLT: 0), not-implemented response(M_RLT: 2) or no response, and the data received in the normal response frame isidentical to the write data.
N
N
R
R
R
R
R

Evaluation criteria

Test
necessity
identified
by theEUT class

Class1
Class2
Class3
Class4
Class5Class6Class 7

– 327 –JEM 1480:2023

Table 98 – Byte block read, byte block write (continued)
Setting parameter(node)

EUT(The
parameter
variesaccording to
the EUTclass)Classes 3
and 4Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
IO allocation setting(class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(Theparameter
variesaccording to
the EUTclass)Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

1
(50)
(10)
0
4
0
16
Optional
100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave of the EUT0To be calculated from thenumber of input points andoutput points of the slave of
the EUT
3 (Controller)
254
50
10
4
4
64
64
4(Flexible master)
254
50
10
Depends on number of
output points of the slave of
the EUT* 0 point: 0* 1 point of more: 256

JEM 1480:2023– 328 –

Table 98 – Byte block read, byte block write (continued)
Setting parameter(continued)

Test
equipment(Theparameter
variesaccording to
the EUT class)(continued)

Class 6
(continued)

Area 2 data top address
Area 2 data size
IO allocation setting(Number of control
slaves)IO allocation setting(Slave setting)Class 7

Setting parameter(Test data)

Byte block
write

Area 1 data size

Requestframe

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Virtual address space

To be calculated from thenumber of output points ofthe slave of the EUT
1 024
1 024
1

Slave node number:
16#8001(Flexible setting mode, Node
number: 1)
Input data address: 16#0000(Area1, Address: 0)
Input data size: To be
calculated from the numberof input points of the slave of
the EUT
Output data address:
Depends on number of
output points of the slave of
the EUT* 0 point: 16#0000(Area1, Address: 0)* 1 point of more: 16#0100(Area1, Address: 256)
Output data size: To be
calculated from the numberof output points of the slaveof the EUT
Input status address:
16#8000(Area2, Address: 0)
Output status address:
16#8400(Area2 Address: 1024)
3 (Controller)
254
50
10
256
4
1 024
64
UDP setting tool interface
254
Depends on the EUT class* Class3, 4, 6 and 7: 1
* Class 5: 100
65 004 (Byte block write
request)Same as virtual size
Depends on the EUT
specification (Input on testing
tool screen)– 329 –JEM 1480:2023

Table 98 – Byte block read, byte block write (continued)
Setting parameter(Test data)(continued)

Byte block
write(continued)

Requestframe(continued)

Virtual size

Contents of data
Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(M_RLT: 0)
Virtual address space

Virtual size

Byte block
read

Requestframe

Contents of data
(In case of M_RLT = 0)
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Virtual address space

size of virtual address
space

Response
frame

Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(M_RLT: 0)

Depends on the EUT
specification(Input on testing
tool screen)
Word data of incremental
numbers from 16#11AA
UDP setting tool interface
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 204 (Byte block write
response)
0 (normal response) or 2
(not-implemented)
0
Depends on the EUT
specification(Same as virtual
address of the write request)
Depends on the EUT
specification (Same as virtual
size of the write request)
NA
UDP setting tool interface
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 003 (Byte block readrequest)0
Depends on the EUT
specification (Same as virtual
address of the write request)
Depends on the EUT
specification (Same as virtual
size of the write request)
NA
UDP setting tool interface
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 203 (Byte block read
response)
0 (normal response) or 2
(not-implemented)
Depends on the EUT
specification (Same as virtualsize)

JEM 1480:2023– 330 –

Table 98 – Byte block read, byte block write (continued)
Setting parameter(Test data)(continued)

Byte block
read(continued)

Response
frame(continued)

Virtual address

Virtual size

Response watchdog time(from request frametransmission to response
frame reception)

Contents of data
(M_RLT: 0)
1s

Depends on the EUT
specification (Same as virtual
address of read request)
Depends on the EUT
specification (Same as virtual
size of read request)
Word data of incremental
numbers from 16#11AA

Table 99 – Word block read, word block write
Test number
Major test group
Test group
Test object
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V3-018General purpose command server function
Operation test of single setting tool (UDP)
Word block read, word block write
Start the equipment under test (EUT), then start the test equipment
The test equipment (UDP setting tool interface) transmits a word block write frame(request), with word data whose contents are incremental (+1) numbers starting with
16#11AA.
The test equipment (UDP setting tool interface) transmits a word block read frame(request) after receiving a word block write frame (normal response) from the EUT.
Confirm the followings:
The EUT transmits a word block write frame(response) to the word block write requestfrom the test equipment.
The response frame is normal response (M_RLT: 0), not-implemented response(M_RLT: 2) or no response.
The EUT transmits a word block read frame (response) to the word block read requestfrom the test equipment.
The response frame is normal response (M_RLT: 0), not-implemented response(M_RLT: 2) or no response, and the data received in the normal response frame isidentical to the write data.
N
N
R
R
R
R
R
EUT
Classes 3
Node number
1
(The
and 4
Token watchdog time
(50)
parameter
Allowable minimum(10)variesframe interval time
according to
Area 1 data top address 0
the EUT
Area 1 data size
4class)
Area 2 data top address 0
Area 2 data size
16
IO allocation setting
optional(class 4)

– 331 –JEM 1480:2023

Table 99 – Word block read, word block write (continued)
Setting parameter(node)(continued)

EUT
(The
parameter
variesaccording to
the EUTclass)(continued)

Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(Theparameter
variesaccording to
the EUTclass)Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(Number of control
slaves)IO allocation setting(Slave setting)

100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave of the EUT0To be calculated from thenumber of input points andoutput points of the slave of
the EUT
3 (Controller)
254
50
10
4
4
64
64
4 (Flexible master)
254
50
10
Depends on number of
output points of the slave of
the EUT* 0 point: 0* 1 point of more: 256
To be calculated from thenumber of output points ofthe slave of the EUT
1 024
1 024
1

Slave node number:
16#8001(Flexible setting mode, Node
number: 1)
Input data address: 16#0000(Area1, Address: 0)

JEM 1480:2023– 332 –

Table 99 – Word block read, word block write (continued)
Setting parameter(node)(continued)

Setting parameter(Test data)

Test
equipment(Theparameter
variesaccording to
the EUTclass)(continued)

Word block
write

Class 6
(continued)

IO allocation setting(Slave setting)(continued)

Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Requestframe

Data size
Virtual address

Virtual size

Contents of data
Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Input data size: To be
calculated from the numberof input points of the slave of
the EUT
Output data address:
Depends on number of
output points of the slave of
the EUT* 0 point: 16#0000(Area1, Address: 0)* 1 point of more: 16#0100(Area1, Address: 256)
Output data size: To be
calculated from the numberof output points of the slaveof the EUT
Input status address:
16#8000(Area2, Address: 0)
Output status address:
16#8400(Area2, Address: 1024)
3 (Controller)
254
50
10
256
4
1 024
64
UDP setting tool interface
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 006 (Word block write
request)Virtual size×2
Depends on the EUT
specification (Input on testing
tool screen)
Depends on the EUT
specification (Input on testing
tool screen)
Word data of incremental
numbers from 16#11AA
UDP setting tool interface
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 206(Word block write
response)

– 333 –JEM 1480:2023

Table 99 – Word block read, word block write (continued)
Setting parameter(Test data)(continued)

Word block
write(continued)

Response
frame(continued)

Type of response
message(M_RLT)
Data size(M_RLT: 0)
Virtual address

Virtual size

Word block
read

Requestframe

Contents of data
(In case of M_RLT = 0)
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Virtual address

Virtual size

Response
frame

Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(M_RLT: 0)
Virtual address space

Virtual size

Response watchdog time(from request frametransmission to response
frame reception)

Contents of data
(M_RLT: 0)1s

0 (normal response) or 2
(not-implemented)
0
Depends on the EUT
specification (Same as virtual
address of write request)
Depends on the EUT
specification (Same as virtual
size of write request)
NA
UDP setting tool interface
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 005 (Word block readrequest)0
Depends on the EUT
specification (Same as virtual
address of write request)
Depends on the EUT
specification (Same as virtual
size of write request)
NA
UDP setting tool interface
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 205(Word block read
response)0(normal response) or 2(notimplemented)
Depends on the EUT
specification (Virtual size×2)
Depends on the EUT
specification (Same as virtual
address of read request)
Depends on the EUT
specification (Same as virtual
size of read request)
Word data of incremental
numbers from 16#11AA

JEM 1480:2023– 334 –

Table 100 – Network parameter write
Test number
Major test group
Test group
Test object
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V3-019General purpose command server function
Operation test of single setting tool (UDP)
Network parameter write
Start the EUT and the test equipment. Then start the dummy node.
The test equipment (UDP setting tool interface) transmits a network parameter write
frame (request).
In case of classes 3 and 4, the EUT disengages from network then rejoin the network
to change address and size.
In case of class 5, 6.and 7, the EUT only changes node name. It doesn’t disengage
from network
In case of class5, 6.and 7, the test equipment transmits a network parameter readmessage (request).
Confirm the followings:
The EUT transmits a response frame to the request frame from the test equipment.
The response frame is normal response (M_RLT: 0), not-implemented response(M_RLT: 2) or no response.
In case of normal response, the decision criteria varies according to the EUT class.
* Classes 3 and 4: The EUT rejoins the network within 10 seconds.
* Class 5, 6 and 7: The EUT transmits a response message to the network parameterread message (request) from the test equipment.
The decision criteria varies according to the EUT class.
* Classes 3 and 4: The participation request header contents after rejoining are identicalto the contents of data (C_AD1, C_SZ1, C_AD2, C_SZ2 and node name) set in therequest.
* Classes 5, 6 and 7: The Contents of data of network parameter read message(response) are identical to the contents of data (node name) set in the network
parameter write frame (request).
N
N
R
R
R
O
R
EUT
Classes 3
Node number
1
(The
and 4
Token watchdog time
(50)
parameter
Allowable minimum(10)variesframe interval time
according to
Area 1 data top address 0
the EUT
Area 1 data size
4class)
Area 2 data top address 0
Area 2 data size
16
IO allocation setting“TargetNode”(Case of class4)
Node number
Optional

– 335 –JEM 1480:2023

Table 100 – Network parameter write (continued)
Setting parameter(node)(continued)

EUT
(The
parameter
variesaccording to
the EUTclass)(continued)

Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node name
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(Theparameter
variesaccording to
the EUTclass)Classes 3, 4
and 5Class 6

Node name
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)

100
(100)
(10)
256
256
1 024
1 024
“TargetNode”
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave of the EUT0To be calculated from thenumber of input points andoutput points of the slave of
the EUT“TargetNode”
3(Controller)
254
50
10
4
4
64
64
4 (Flexible master)
254
50
10
Depends on number of
output points of the slave of
the EUT* 0 point: 0* 1 point of more: 256
To be calculated from thenumber of output points ofthe slave of the EUT
1 024
1 024
1

JEM 1480:2023– 336 –

Table 100 – Network parameter write (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameter
variesaccording to
the EUT class)(continued)

Dummy nodeClass 6
(continued)

IO allocation setting(Slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

Slave node number:
16#8001(Flexible setting mode, Node
number: 1)
Input data address: 16#0000(Area1, Address: 0)
Input data size: To be
calculated from the numberof input points of the slave of
the EUT
Output data address:
Depends on number of
output points of the slave of
the EUT* 0 point: 16#0000(Area1, Address: 0)* 1 point of more: 16#0100(Area1, Address: 256)
Output data size: To be
calculated from the numberof output points of the slaveof the EUT
Input status address:
16#8000(Area2, Address: 0)
Output status address:
16#8400(Area2, Address: 1024)
3 (Controller)
254
50
10
256
4
1 024
64
3 (Controller)
2
50
10
0
0
0
0

– 337 –JEM 1480:2023

Table 100 – Network parameter write (continued)
Setting parameter(Test data)

Networkparameter
write

Requestframe

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Responseframe

Response watchdog time(from request frametransmission to response
frame reception)

Interface
Node address of source
side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(In case of M_RLT = 0)1s

UDP setting tool interface
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 008 (Network parameter
write request)
0
Setting parameter flag:
Depends on the EUT class* Class 3 and 4: 3
* Class 5, 6 and 7: 2
Area 1 data top address: 256
Area 1 data size: 128
Area 2 data top address:
4 096
Area 2 data size: 1 024
Node name: “RenewNode1”
UDP setting tool interface
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 208(Network parameter
write response)
0 (normal response) or 2
(not-implemented)
0
NAJEM 1480:2023– 338 –

Table 100 – Network parameter write (continued)
Setting parameter(Test data)(continued)

Networkparameter
read

Requestmessage

Response
message

Interface
Node address of source
side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address of source
side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

FL-net message
254

Depends on the EUT class* Classes 6 and 7: 1
* Class 5: 100
65 007 (Network parameterread request)
0NA
FL-net message
Depends on the EUT class* Classes 6 and 7: 1
* Class 5: 100
254

65 207 (Network parameterread response)
0 (normal response)
56
Node name:“RenewNode1”
Vender code of node
information: (no evaluation)
Manufacturer model name ofnode information: (noevaluation)
Area 1 data top address:
Depends on the EUT class* Class 5: 256* Classes 6 and 7: 0
Area 1 data size: Depends
on the EUT class* Class 5: 256* Classes 6 and 7: To be
calculated from the numberof input points of the slaveof the EUT
Area 2 data top address:
Depends on the EUT class* Class 5: 1 024* Classes 6, 7:0
Area 2 data size: Depends
on the EUT class* Class 5: 1 024* Classes 6 and 7: To be
calculated from the numberof input points and output
points of the slave of theEUT– 339 –JEM 1480:2023

Table 100 – Network parameter write (continued)
Setting parameter(Test data)(continued)

Networkparameter
read(continued)

Response
message(continued)

Contents of data
(M_RLT: 0)(continued)

Token watchdog time: (noevaluation)
Allowable minimum frameinterval time:(no evaluation)
Link status: (no evaluation)
Protocol type: 128
Upper layer status: (noevaluation)
Allowable refresh cycle time:(no evaluation)
Refresh cycle measurement
time (current): (noevaluation)
Refresh cycle measurement
time (maximum): (noevaluation)
Refresh cycle measurement
time (minimum): (noevaluation)

Table 101 – Profile read
Test number
Major test group
Test group
Test object
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V3-020General purpose command server function
Operation test of single setting tool (UDP)
Profile readStart the EUT, then start the test equipment.
The test equipment (UDP setting tool interface) transmits a profile read frame(request).
Confirm the followings:
The EUT transmits a response frame to the request frame from the test equipment.
The response frame is normal response (M_RLT:0), not-implemented response(M_RLT:2) or no response, and the contents of data in the normal response frame are
identical to the setting data of the EUT.
N
N
R
R
R
R
R
EUT
Classes 3
Node number
1
(The
and 4
Token watchdog time
(50)
parameter
Allowable minimum(10)variesframe interval time
according to
Area 1 data top address 0
the EUT
Area 1 data size
4class)
Area 2 data top address 0
Area 2 data size
16
IO allocation setting
Optional(Case of class4)
Class 5
Node number
100
Token watchdog time(100)

JEM 1480:2023– 340 –

Table 101 – Profile read (continued)
Setting parameter(node)(continued)

EUT
(The
parameter
variesaccording to
the EUT class)(continued)

Class 5
(continued)

Classes 6
and 7

Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(Theparameter
variesaccording to
the EUTclass)Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(Slave setting)

(10)
256
256
1 024
1 024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave of the EUT0To be calculated from thenumber of input points andoutput points of the slave of
the EUT
3 (Controller)
254
50
10
4
4
64
64
4 (Flexible master)
254
50
10
Depends on number of
output points of the slave of
the EUT* 0 point: 0* 1 point of more: 256
To be calculated from thenumber of output points ofthe slave of the EUT
1 024
1 024
1

Slave node number:
16#8001(Flexible setting mode, Node
number: 1)
Input data address: 16#0000(Area1, Address: 0)
Input data size: To be
calculated from the numberof input points of the slave of
the EUT– 341 –JEM 1480:2023

Table 101 – Profile read (continued)
Setting parameter(node)(continued)

Setting parameter(Test data)

Test
equipment(Theparameter
variesaccording to
the EUT class)(continued)

Request frame

Response frame

Class 6
(continued)

IO allocation setting(Slave setting)(continued)

Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

Output data address:
Depends on number of
output points of the slave of
the EUT* 0 point: 16#0000(Area1, Address: 0)* 1 point of more: 16#0100(Area1, Address: 256)
Output data size: To be
calculated from the numberof output points of the slaveof the EUT
Input status address:
16#8000(Area2, Address: 0)
Output status address:
16#8400(Area2, Address: 1024)
3 (Controller)
254
50
10
256
4
1 024
64
UDP setting tool interface
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 011(Profile read request)
0NA
UDP setting tool interface
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 211 (Profile read
response)
0 (normal response) or 2
(not-implemented)
Depends on the EUT
specification (Confirmed bytest executor)
Depends on the EUT
specification (Confirmed bytest executor)

JEM 1480:2023– 342 –

Table 101 – Profile read (continued)
Setting parameter(Test data)(continued)

Response watchdog time(from request frametransmission to response
frame reception)

1s

Table 102 – Operation command, Stop command
Test number
Major test group
Test group
Test object
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V3-021
General purpose command server function
Operation test of single setting tool (UDP)
Operation command, stop command
Start the EUT, then start the test equipment.
The test equipment (UDP setting tool interface) transmits a stop command frame(request).
The test equipment (UDP setting tool interface) transmits an operation command frame(request).
The test equipment (UDP setting tool interface) transmits a stop command frame(request) after receiving an operation command frame (normal response) from theEUT.
Confirm the followings:
The EUT transmits an operation command frame (response) to the operationcommand request from the test equipment.
The response frame is normal response (M_RLT: 0), not-implemented response(M_RLT: 2) or no response.
In case of normal response, the EUT runs. [ULS (Upper layer status) RUN flag is set to1.]
The EUT transmits a stop command frame (response) to the stop command requestfrom the test equipment.
The response frame is normal response (M_RLT: 0), not-implemented response(M_RLTL 2) or no response.
In case of normal response, the EUT stops. [ULS (Upper layer status) RUN flag is set
to 0.]
N
N
R
R
R
R
R
EUT
Classes 3
Node number
1
(The
and 4
Token watchdog time
(50)
parameter
Allowable minimum(10)variesframe interval time
according to
Area 1 data top address 0
the EUT
Area 1 data size
4class)
Area 2 data top address 0
Area 2 data size
16
IO allocation setting
Optional(Case of class4)
Class5
Node number
100
Token watchdog time(100)

– 343 –JEM 1480:2023

Table 102 – Operation command, Stop command (continued)
Setting parameter(node)(continued)

EUT
(The
parameter
variesaccording to
the EUTclass)(continued)

Class 5
(continued)

Classes 6
and 7

Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(Theparameter
variesaccording to
the EUTclass)Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(Slave setting)

(10)
256
256
1 024
1 024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave of the EUT0To be calculated from thenumber of input points andoutput points of the slave of
the EUT
3 (Controller)
254
50
10
4
4
64
64
4 (Flexible master)
254
50
10
Depends on number of
output points of the slave of
the EUT* 0 point: 0* 1 point of more: 256
To be calculated from thenumber of output points ofthe slave of the EUT
1 024
1 024
1

Slave node number:
16#8001(Flexible setting mode, Node
number: 1)
Input data address: 16#0000(Area1, Address: 0)
Input data size: To be
calculated the size fromnumber of input points of theslave of the EUTJEM 1480:2023– 344 –

Table 102 – Operation command, Stop command (continued)
Setting parameter(node)(continued)

Setting parameter(Test data)

Test
equipment(Theparameter
variesaccording to
the EUT class)(continued)

OperationcommandClass 6
(continued)

IO allocation setting(Slave setting)(continued)

Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Requestframe

Response
frame

Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(In case of M_RLT = 0)

Output data address:
Depends on number of
output points of the slave of
the EUT* 0 point: 16#0000(Area1, Address: 0)* 1 point of more: 16#0100(Area1, Address: 256)
Output data size: To be
calculated the size fromnumber of output points ofthe slave of the EUT
Input status address:
16#8000(Area2, Address: 0)
Output status address:
16#8400(Area2, Address: 1024)
3(Controller)
254
50
10
256
4
1 024
64
UDP setting tool interface
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 010 (Operation command
request)0NA
UDP setting tool interface
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 210 (Operation command
response)
0 (normal response) or 2
(not-implemented)
0NA

– 345 –JEM 1480:2023

Table 102 – Operation command, Stop command (continued)
Setting parameter(Test data)(continued)

Stop command

Requestframe

Responseframe

Response watchdog time(from request frametransmission to response
frame reception)d)Operation test of double setting tools (UDP)
shown in Tables 103 through 107.

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)1s

UDP setting tool interface
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 009 (Stop command
request)0NA
UDP setting tool interface
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 209 (Stop command
response)
0 (normal response) or 2
(not-implemented)
0NA

Operation test of double setting tools (UDP) is

Table 103 – IO allocation setting (lock confirmation)/read
Test number
Major test group
Test group
Test object
Test procedure

V3-022
General purpose command server function
Operation test of double setting tools (UDP)
IO allocation setting (lock confirmation),/readStart the EUT, then start the test equipment.
The test equipment [the first UDP setting tool interface (hereafter called “setting toolA”)] transmits the first IO allocation setting frame (request, setting No.: 1/number ofcontrol slaves: 2).
The test equipment [the second UDP setting tool interface (hereafter called “setting toolB”)] transmits the second IO allocation setting frame (request, setting No.: 1/number ofcontrol slaves: 3) after receiving the first IO allocation setting frame (response) from the
EUT.
The test equipment (UDP setting tool A) transmits the third IO allocation setting frame(request, setting No.: 2/number of control slaves: 2) after receiving the second IO
allocation setting frame (response) from the EUT.
The test equipment (UDP setting tool A) transmits the first IO allocation read frame(request, setting No.: 1) after receiving the third IO allocation setting frame (response)from the EUT.
The test equipment (UDP setting tool A) transmits the second IO allocation read frame(request, setting No.: 2) after receiving the first IO allocation read frame (response)from the EUT.

JEM 1480:2023– 346 –

Table 103 – IO allocation setting (lock confirmation)/read (continued)
Evaluation criteria

Confirm the followings:
The EUT transmits the first IO allocation setting response frame to the first IO
allocation setting request from the test equipment (UDP setting tool A).
The contents of the first IO allocation setting response frame are as follows: (Decision
criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT: 0).
* Class3 (flexible master function not-implemented): Normal response (M_RLT: 0), notimplemented response (M_RLT: 2) or no response.
NOTE: In case of normal response, the contents of data shall be correct.
The EUT transmits the second IO allocation setting response frame to the second IO
allocation setting request from the test equipment (UDP setting tool B).
The contents of the second IO allocation setting response frame as follows: (Decision
criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented) and 4: Abnormal response (M_RLT:
1).
* Class 3 (flexible master function not-implemented): Abnormal response (M_RLT: 1),
not-implemented response (M_RLT:2) or no response.
NOTE: In case of abnormal response, the result of response data shall be Abnormal(16#02) and Information shall be Locked by exclusive control (16#04).
The EUT transmits the third IO allocation setting response frame to the third IO
allocation setting request from the test equipment (UDP setting tool A).
The contents of the third IO allocation setting response frame are as follows: (Decision
criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT: 0).
* Class3 (flexible master function not-implemented): Normal response (M_RLT: 0), notimplemented response (M_RLT: 2) or no response.
NOTE: In case of normal response, the contents of data shall be correct.
The EUT transmits the first IO allocation read response frame to the first IO allocation
read request from the test equipment (UDP setting tool A).
The contents of the first IO allocation read response frame are as follows: (Decision
criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented), 4: Normal response (M_RLT: 0).
* Class 3 (flexible master function not-implemented): Normal response (M_RLT: 0), notimplemented response (M_RLT: 2) or no response.
NOTE: In case of normal response, the contents of data shall be identical to the setting
contents from the setting tool A.
The EUT transmits the second IO allocation read response frame to the second IO
allocation read request from the test equipment (UDP setting tool A).
The contents of the second IO allocation read response frame are as follows: (Decision
criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT: 0).
* Class 3 (flexible master function not-implemented): Normal response (M_RLT: 0), notimplemented response (M_RLT: 2) or no response.
NOTE: In case of normal response, the Contents of data shall be identical to the setting
contents from the setting tool A.
The EUT transmits a solicitation frame based on the setting contents from the setting
tool A.

– 347 –JEM 1480:2023

Table 103 – IO allocation setting (lock confirmation)/read (continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

N
N
R
R
N
N
N
EUT

Test
equipment

Setting parameter(Test data)

IO allocation
setting(First)Classes 3
and 4Classes 3
and 4

Requestframe

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
IO allocation setting(Case of class4)
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

1
(50)
(10)
256
16
1 024
64
optional
3 (Controller)
254
50
10
4
4
64
64
UDP setting tool interface
254

1

65 018 (IO allocation setting
request)24
Setting number: 1
Number of control slaves(whole): 2
Lock ID: 0
Lock timeout setting value: 4
Slave node number:
16#800C(Flexible setting mode, Node
number: 12)

JEM 1480:2023– 348 –

Table 103 – IO allocation setting (lock confirmation)/read (continued)
Setting parameter(Test data)(continued)

IO allocation
setting(First)(continued)

Requestframe(continued)

Contents of data(continued)

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)
IO allocation
setting(Second)

Requestframe

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Input data address: 16#0080(Area1, Address: 128)
Input data size: 4
Output data address:
16#0100(Area1, Address: 256)
Output data size: 8
Input status address:
16#8200(Area2, Address: 512)
Output status address:
16#8400(Area2, Address: 1024)
UDP setting tool interface
1

254

65 218 (IO allocation setting
response)
Depends on the EUT class* Class3 (flexible masterfunction notimplemented): 0 (normal)
or 2 (not-implemented)* Class3 (flexible masterfunction implemented), 4: 0
(normal)8
Result: 1 (continue)
Information: (no evaluation)
Lock ID: any value except 0
UDP setting tool B
253

1

65 018 (IO allocation setting
request)24
Setting number: 1
Number of control slaves(whole): 3
Lock ID: 0
Lock timeout setting value: 6
Slave node number:
16#8032(Flexible setting mode, Node
number: 50)
Input data address: 16#00A0(Area1, Address: 160)
Input data size: 4

– 349 –JEM 1480:2023

Table 103 – IO allocation setting (lock confirmation)/read (continued)
Setting parameter(Test data)(continued)

IO allocation
setting(Second)(continued)

Requestframe(continued)

Contents of data(continued)

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 1)
Contents of data
(M_RLT: 1)

IO allocation
setting(Third)Requestframe

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Output data address:
16#010C(Area1, Address: 268)
Output data size: 4
Input status address:
16#8258(Area2, Address: 600)
Output status address:
16#8430(Area2, Address: 1072)
UDP setting tool B
1253

65 218 (IO allocation setting
response)
Depends on the EUT class* Class 3 (flexible masterfunction not-implemented):
1 (abnormal) or 2 (notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 1 (abnormal)
8

Result: 2(abnormal)
Information: 4 (locked by
exclusive control)
Lock ID: (no evaluation)
UDP setting tool A
254

1

65 018 (IO allocation setting
request)24
Setting number: 2
Number of control slaves(whole): 2
Lock ID: Same value as lockID of the first IO allocation
setting response frame
Lock timeout setting value: 4
Slave node number:
16#8064(Flexible setting mode, Node
number: 100)

JEM 1480:2023– 350 –

Table 103 – IO allocation setting (lock confirmation)/read (continued)
Setting parameter(Test data)(continued)

IO allocation
setting(Third)(continued)

Requestframe(continued)

Contents of data(continued)

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

IO allocation
read(First)Requestframe

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Input data address: 16#008C(Area1, Address: 140)
Input data size: 6
Output data address:
16#0108(Area1, Address: 264)
Output data size: 8
Input status address:
16#8220(Area2, Address: 544)
Output status address:
16#8420(Area2, Address: 1056)
UDP setting tool A
1254

65 218 (IO allocation setting
response)
Depends on the EUT class* Class 3 (flexible masterfunction not-implemented):
0 (normal) or 2 (notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 0 (normal)
8
Result: 0 (normal)
Information: (no evaluation)
Lock ID: Same value as lockID of the first IO allocation
setting response frame
UDP setting tool A
254

1

65 019 (IO allocation readrequest)4
Setting number: 1
A
UDP setting tool A
1254

65 219 (IO allocation read
response)

– 351 –JEM 1480:2023

Table 103 – IO allocation setting (lock confirmation)/read (continued)
Setting parameter(Test data)(continued)

IO allocation
read(First)(continued)

Response
frame(continued)

Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

IO allocation
read(Second)

Setting parameter(Test data)(continued)

IO allocation
read(Second)(continued)

Requestframe

Requestframe(continued)
Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Depends on the EUT class* Class 3 (flexible masterfunction not-implemented):
0 (normal) or 2 (notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 0 (normal)
20
Setting number: 1
Number of control
slaves(The whole): 2
Slave node number:
16#800C(Flexible setting mode, Node
number: 12)
Input data address: 16#0080(Area1, Address: 128)
Input data size: 4
Output data address:
16#0100(Area1, Address: 256)
Output data size: 8
Input status address:
16#8200(Area2, Address: 512)
Output status address:
16#8400(Area2, Address: 1024)
UDP setting tool A
254

1

65 019 (IO allocation readrequest)4
Setting number: 2
UDP setting tool A
1254

65 219 (IO allocation read
response)
Depends on the EUT class* Class3 (flexible masterfunction not-implemented):
0 (normal) or 2 (notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 0 (normal)

JEM 1480:2023– 352 –

Table 103 – IO allocation setting (lock confirmation)/read (continued)
Setting parameter(Test data)(continued)

IO allocation
read(Second)(continued)

Solicitation frame

Response
frame(continued)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

Node address ofsource side
(SNA)
TCD
Data size
Contents of data
(For the firstnode)Contents of data
(Second node)

20
Setting number: 2
Number of control
slaves(whole): 2
Slave node number:
16#8064(Flexible setting mode, Node
number: 100)
Input data address: 16#008C(Area1, Address: 140)
Input data size: 6
Output data address:
16#0108(Area1, Address: 264)
Output data size: 8
Input status address:
16#8220(Area2, Address: 544)
Output status address:
16#8420(Area2, Address: 1056)
165017 (Solicitation)
32
Slave node number:
16#800C(Flexible setting mode, Node
number: 12)
Input data address: 16#0080(Area1, Address: 128)
Input data size: 4
Output data address:
16#0100(Area1, Address: 256)
Output data size: 8
Input status address:
16#8200(Area2, Address: 512)
Output status address:
16#8400(Area2, Address: 1024)
Lock ID: 1
Slave node number:
16#8064(Flexible setting mode, Node
number: 100)
Input data address: 16#008C(Area1, Address: 140)
Input data size: 6

– 353 –JEM 1480:2023

Table 103 – IO allocation setting (lock confirmation)/read (continued)
Setting parameter(Test data)(continued)

Solicitation frame(continued)

Contents of data
(Second node)(continued)

Response watchdog time(from request frametransmission to response
frame reception)

1s

Output data address:
16#0108(Area1, Address: 264)
Output data size: 8
Input status address:
16#8220(Area2, Address: 544)
Output status address:
16#8420(Area2, Address: 1056)
Lock ID: 1

Table 104 – IO allocation setting (lock timeout)/read
Test number
Major test group
Test group
Test object
Test procedure

V3-023General purpose command server function
Operation test of double setting tools (UDP)
IO allocation setting (lock timeout)/readStart the EUT, then start the test equipment
The test equipment [the first UDP setting tool interface (hereafter called “setting toolA”)] transmits the first IO allocation setting frame (request, setting number: 1/ numberof control slaves: 2).
The test equipment [the second UDP setting tool interface (hereafter called “setting toolB”)] transmits the second IO allocation setting frame (request, setting number: 1/
number of control slaves: 3) after receiving the first IO allocation setting frame(response) from the EUT.
The test equipment (UDP setting tool A) transmits the first IO allocation setting frame,
waits for the lock timeout time and transmits the third IO allocation setting frame(request, setting number: 2/number of control slaves: 2).
The test equipment (UDP setting tool B) transmits the fourth IO allocation setting frame(request, setting number: 1/ number of control slaves: 1) after receiving the third IO
allocation setting frame (response) from the EUT.
The test equipment (UDP setting tool B) transmits the IO allocation read frame(request, setting number: 1) after receiving the fourth IO allocation setting frame(response) from the EUT.

JEM 1480:2023– 354 –

Table 104 – IO allocation setting (lock timeout)/read (continued)
Evaluation criteria

Confirm the followings:
The EUT transmits the first IO allocation setting response frame to the first IO
allocation setting request from the test equipment (UDP setting tool A).
The contents of the first IO allocation setting response frame are as follows: (Decision
criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT: 0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT: 0), notimplemented response (M_RLT: 2) or no response.
NOTE: In case of normal response, the Contents of data shall be correct.
The EUT transmits the second IO allocation setting response frame to the second IO
allocation setting request from the test equipment (UDP setting tool B).
The contents of the second IO allocation setting response frame are as follows:(Decision criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented) and 4: Abnormal response (M_RLT:
1)* Class 3 (flexible master function not-implemented): Abnormal response (M_RLT: 1),
not-implemented response (M_RLT: 2) or no response.
NOTE: In case of abnormal response, the result of response data shall be Abnormal(16#02) and Information shall be Locked by exclusive control (16#04).
The EUT transmits the third IO allocation setting response frame to the third IO
allocation setting request from the test equipment (UDP setting tool A).
The contents of the third IO allocation setting response frame are as follows: (Decision
criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented) and 4: Abnormal response (M_RLT:
1).
* Class 3 (flexible master function not-implemented): Abnormal response (M_RLT: 1),
not-implemented response (M_RLT: 2) or no response.
NOTE: In the case of abnormal response, the result of response data shall be Abnormal(16#02) and Information shall be Exclusive lock timed out (16#05).
The EUT transmits the fourth IO allocation setting response frame to the fourth IO
allocation setting request from the test equipment(UDP setting tool B).
The contents of the fourth IO allocation setting response frame are as follows:(Decision criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT: 0).
* Class 3 (flexible master function not-implemented): Normal response(M_RLT: 0), notimplemented response (M_RLT: 2) or no response.
NOTE: In the case of normal response, the Contents of data shall be correct.
The EUT transmits the IO allocation read frame(response) to the IO allocation readrequest from the test equipment (UDP setting tool B).
The contents of the IO allocation read frame(response) are as follows: (Decision
criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT: 0)* Class 3 (flexible master function not-implemented): Normal response(M_RLT: 0), notimplemented response (M_RLT: 2) or no response.
NOTE: In case of normal response, the contents of data shall be identical to the setting
contents from the setting tool B.
The EUT transmits a solicitation frame based on the setting contents from the setting
tool B.

– 355 –JEM 1480:2023

Table 104 – IO allocation setting (lock timeout)/read (continued)
Test
necessity
identifi
ed by
the
EUT
class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

N
N
R
R
N
N
N
EUT

Test
equipment

IO allocation
setting(First)Classes 3
and 4Classes 3
and 4

Requestframe

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
IO allocation setting(Case of class4)
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

1
(50)
(10)
256
16
1 024
64
optional
3 (Controller)
254
50
10
4
4
64
64
UDP setting tool A
254

1

65 018 (IO allocation setting
request)24
Setting number: 1
Number of control slaves(whole): 2
Lock ID: 0
Lock timeout setting value: 4
Slave node number:
16#800C(Flexible setting mode, Node
number: 12)
Input data address: 16#0080(Area1, Address: 128)

JEM 1480:2023– 356 –

Table 104 – IO allocation setting (lock timeout)/read (continued)
Setting parameter(Test data)(continued)

IO allocation
setting(First)(continued)

Requestframe(continued)

Contents of data(continued)

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)
IO allocation
setting(Second)

Requestframe

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Input data size: 4
Output data address:
16#0100(Area1, Address: 256)
Output data size: 8
Input status address:
16#8200(Area2, Address: 512)
Output status address:
16#8400(Area2, Address: 1024)
UDP setting tool A
1254

65 218(IO allocation setting
response)
Depends on the EUT class* Class3 (flexible masterfunction not-implemented):
0 (normal) or 2 (notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 0 (normal)
8
Result: 1 (continued)
Information: (no evaluation)
Lock ID: Any value except 0
UDP setting tool B
253

1

65 018 (IO allocation setting
request)24
Setting number: 1
Number of control slaves(whole): 3
Lock ID: 0
Lock timeout setting value: 6
Slave node number:
16#8032(Flexible setting mode, Node
number: 50)
Input data address: 16#00A0(Area1, Address: 160)
Input data size: 4

– 357 –JEM 1480:2023

Table 104 – IO allocation setting (lock timeout)/read (continued)
Setting parameter(Test data)(continued)

IO allocation
setting(Second)(continued)

Requestframe(continued)

Contents of data(continued)

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 1)
Contents of data
(M_RLT: 1)

IO allocation
setting(Third)Requestframe

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Output data address:
16#010C(Area1, Address: 268)
Output data size: 4
Input status address:
16#8258(Area2, Address: 600)
Output status address:
16#8430(Area2, Address: 1 072)
UDP setting tool B
1253

65 218 (IO allocation setting
response)
Depends on the EUT class* Class 3 (flexible masterfunction not-implemented):
1 (abnormal) or 2 (notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 1 (abnormal)
8
Result: 2 (abnormal)
Information: 4 (locked by
exclusive control)
Lock ID: (no evaluation)
UDP setting tool A
254

1

65 018 (IO allocation setting
request)24
Setting number: 2
Number of control slaves(whole): 2
Lock ID: Same as lock ID of
the first IO allocation setting
response frame
Lock timeout setting value: 4
Slave node number:
16#8064(Flexible setting mode, Node
number: 100)
Input data address: 16#008C(Area1, Address: 140)

JEM 1480:2023– 358 –

Table 104 – IO allocation setting (lock timeout)/read (continued)
Setting parameter(Test data)(continued)

IO allocation
setting(Third)(continued)

Requestframe(continued)

Contents of data(continued)

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 1)
Contents of data
(M_RLT: 1)

IO allocation
setting(Fourth)Requestframe

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Input data size: 6
Output data address:
16#0108(Area1, Address: 264)
Output data size: 8
Input status address:
16#8220(Area2, Address: 544)
Output status address:
16#8420(Area2, Address: 1056)
UDP setting tool A
1254

65 218 (IO allocation setting
response)
Depends on the EUT class* Class 3 (flexible masterfunction not-implemented):
1 (abnormal) or 2 (notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 1 (abnormal)
8
Result: 2 (abnormal)
Information: 5 (exclusive lock
timed out)
Lock ID: (no evaluation)
UDP setting tool B
253

1

65 018 (IO allocation setting
request)24
Setting number: 1
Number of control slaves(whole): 1
Lock ID: 0
Lock timeout setting value: 6
Slave node number:
16#8064(Flexible setting mode, Node
number: 100)
Input data address: 16#008C(Area1, Address: 140)
Input data size: 6

– 359 –JEM 1480:2023

Table 104 – IO allocation setting (lock timeout)/read (continued)
Setting parameter(Test data)(continued)

IO allocation
setting(Fourth)(continued)

Requestframe(continued)

Contents of data(continued)

Response
frame

Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)
IO allocation
read

Requestframe

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side (DNA)TCD
Data size
Contents of data
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)

Output data address:
16#0104(Area1, Address: 260)
Output data size: 12
Input status address:
16#8210(Area2, Address: 528)
Output status address:
16#8410(Area2, Address: 1 040)
UDP setting tool B
1253
65 218 (IO allocation setting
response)
Depends on the EUT class* Class 3 (flexible masterfunction not-implemented):
0 (normal) or 2 (notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 0 (normal)
8
Result: 0(normal)
Information: (no evaluation)
Lock ID: Any value except 0
UDP setting tool B
253

1
65 019 (IO allocation readrequest)4
Setting number: 1
UDP setting tool B
1253
65 219 (IO allocation read
response)
Depends on the EUT class* Class 3 (flexible masterfunction not-implemented):
0 (normal) or 2 (notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 0 (normal)
20

JEM 1480:2023– 360 –

Table 104 – IO allocation setting (lock timeout)/read (continued)
Setting parameter(Test data)(continued)

IO allocation
read(continued)

Response
frame(continued)

Solicitation frame

Response watchdog time(from request frametransmission to response
frame reception)

Contents of data
(M_RLT: 0)

Node address ofsource side
(SNA)
TCD
Data size
Contents of data

1s

Setting number: 1
Number of control slaves(whole): 1
Slave node number:
16#8064(Flexible setting mode, Node
number: 100)
Input data address: 16#008C(Area1, Address: 140)
Input data size: 6
Output data address:
16#0104(Area1, Address: 260)
Output data size: 12
Input status address:
16#8210(Area2, Address: 528)
Output status address:
16#8410(Area2, Address: 1 040)
1

65 017 (Solicitation)
16
Slave node number:
16#8064(Flexible setting mode, Node
number: 100)
Input data address: 16#008C(Area1, Address: 140)
Input data size: 6
Output data address:
16#0104(Area1, Address: 260)
Output data size: 12
Input status address:
16#8210(Area2, Address: 528)
Output status address:
16#8410(Area2, Address: 1 040)
Lock ID: 1

– 361 –JEM 1480:2023

Table 105 – IO allocation setting (unlock)/read
Test number
Major test group
Test group
Test object
Test procedure

Evaluation criteria

V3-024General purpose command server function
Operation test of double setting tools (UDP)
IO allocation setting (unlock)/readStart the EUT, then start the test equipment.
The test equipment [the first UDP setting tool interface (hereafter called “setting toolA”)] transmits the first IO allocation setting frame (request, setting number: 1/numberof control slaves: 2).
The test equipment (UDP setting tool A) transmits the second IO allocation setting
frame (request, unlock) after receiving the first IO allocation setting frame (response)from the EUT.
The test equipment [the second UDP setting tool interface (hereafter called “setting
tool B”)] transmits the third IO allocation setting frame (request, setting number:
1/number of control slaves: 1) after receiving the second IO allocation setting frame(response) from the EUT.
The test equipment (UDP setting tool B) transmits an IO allocation read frame(request, setting number: 1) after receiving the third IO allocation setting frame(response) from the EUT.
Confirm the followings:
The EUT transmits the first IO allocation setting response frame to the first IO
allocation setting request from the test equipment (UDP setting tool A).
The contents of the first IO allocation setting response frame are as follows: (Decision
criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT: 0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT: 0), notimplemented response (M_RLT: 2) or no response.
NOTE: In case of normal response, the contents of data shall be correct.
The EUT transmits the second IO allocation setting response frame to the second IO
allocation setting request from the test equipment (UDP setting tool A).
The contents of the second IO allocation setting response frame are as follows;(Decision criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT: 0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT: 0), notimplemented response (M_RLT: 2) or no response.
NOTE: In case of normal response, the contents of data shall be correct.
The EUT transmits the third IO allocation setting response frame to the third IO
allocation setting request from the test equipment (UDP setting tool B).
The contents of the third IO allocation setting response frame are as follows:(Decision criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT: 0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT: 0), notimplemented response (M_RLT: 2) or no response.
NOTE: In case of normal response, the contents of data shall be correct.
The EUT transmits an IO allocation read frame (response) to the IO allocation readrequest from the test equipment (UDP setting tool B).
The contents of the IO allocation read frame (response) are as follows: (Decision
criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT: 0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT: 0), notimplemented response (M_RLT: 2) or no response/
NOTE: In case of normal response, the contents of data are identical to the setting
contents from the setting tool B.
The EUT transmits a solicitation frame based on the setting contents from the UDP
setting tool B.

JEM 1480:2023– 362 –

Table 105 – IO allocation setting (unlock)/read (continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

N
N
R
R
N
N
N
EUT

Test
equipment

Setting parameter(Test data)

IO allocation
setting(First)Classes 3
and 4Classes 3
and 4

Requestframe

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
IO allocation setting(class 4)
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size

1
(50)
(10)
256
16
1 024
64
optional
3 (Controller)
254
50
10
4
4
64
64
UDP setting tool A
254

1

65 018 (IO allocation setting
request)24

– 363 –JEM 1480:2023

Table 105 – IO allocation setting (unlock)/read (continued)
Setting parameter(Test data)(continued)

IO allocation
setting(First)(continued)

Requestframe(continued)

Contents of data

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)
IO allocation
setting(Second)

Requestframe

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size

Setting number: 1
Number of control slaves(whole): 2
Lock ID: 0
Lock timeout setting value:
4
Slave node number:
16#800C(Flexible setting mode,
Node number 12)
Input data address:
16#0080(Area1, Address: 128)
Input data size: 4
Output data address:
16#0100(Area1, Address: 256)
Output data size: 8
Input status address:
16#8200(Area2, Address: 512)
Output status address:
16#8400(Area2, Address: 1024)
UDP setting tool A
1254

65 218 (IO allocation setting
response)
Depends on the EUT class* Class 3 (flexible masterfunction notimplemented): 0(normal) or 2 (notimplemented)* Classes 3 (flexible masterfunction implemented)
and 4: 0 (normal)
8
Result: 1 (continued)
Information: (no evaluation)
Lock ID: Any value except 0
UDP setting tool A
254

1

65 018 (IO allocation setting
request)24

JEM 1480:2023– 364 –

Table 105 – IO allocation setting (unlock)/read (continued)
Setting parameter(Test data)(continued)

IO allocation
setting(Second)(continued)

Requestframe(continued)

Contents of data

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)
IO allocation
setting(Third)Requestframe

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Setting number: 16#FFFF
Number of control slaves(whole): 16#FFFF
Lock ID: Same as lock ID of
the first IO allocation setting
response frame
Lock timeout setting value:
4
Slave node number: 0
Input data address: 0
Input data size: 0
Output data address: 0
Output data size: 0
Input status address: 0
Output status address: 0
UDP setting tool A
1254

65 218 (IO allocation setting
response)
Depends on the EUT class* Class 3 (flexible masterfunction notimplemented): 0 (normal)
or 2 (not-implemented)* Classes 3 (flexible masterfunction implemented)
and 4: 0(normal)
8
Result: 1(abnormal)
Information: (no evaluation)
Lock ID: (no evaluation)
UDP setting tool B
253

1

65 018 (IO allocation setting
request)24
Setting number: 1
Number of control slaves(whole): 1
Lock ID: 0
Lock timeout setting value:
4
Slave node number:
16#8032(Flexible setting mode,
Node number: 50)

– 365 –JEM 1480:2023

Table 105 – IO allocation setting (unlock)/read (continued)
Setting parameter(Test data)(continued)

IO allocation
setting(Third)(continued)

Requestframe(continued)

Contents of data(continued)

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)
IO allocation
read

Requestframe

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Input data address:
16#00A0(Area1, Address: 160)
Input data size: 4
Output data address:
16#0108(Area1, Address: 264)
Output data size: 8
Input status address:
16#8258(Area2, Address: 600)
Output status address:
16#8420(Area2, Address: 1056)
UDP setting tool B
1253

65 218 (IO allocation setting
response)
Depends on the EUT class* Class 3 (flexible masterfunction notimplemented): 0 (normal)
or 2 (not-implemented)* Classes 3 (flexible masterfunction implemented)
and 4: 0 (normal)
8
Result: 0(normal)
Information: (no evaluation)
Lock ID: Value except 0
UDP setting tool B
253

1

65 019(IO allocation readrequest)4
Setting number: 1
UDP setting tool B
1253

65 219(IO allocation read
response)

JEM 1480:2023– 366 –

Table 105 – IO allocation setting (unlock)/read (continued)
Setting parameter(Test data)(continued)

IO allocation
read(continued)

Response
frame(continued)

Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

Solicitation frame

Response watchdog time(from request frametransmission to response
frame reception)

Node address ofsource side
(SNA)
TCD
Data size
Contents of data

1s

Depends on the EUT class* Class3(flexible masterfunction notimplemented): 0(normal)or 2(not-implemented)* Class3(flexible masterfunction implemented), 4:0(normal)
20
Setting number: 1
Number of control
slaves(The whole): 1
Slave node number:
16#8032(Flexible setting mode,
Node number: 50)
Input data address:
16#00A0(Area1, Address: 160)
Input data size: 4
Output data address:
16#0108(Area1, Address: 264)
Output data size: 4
Input status address:
16#8258(Area2, Address: 600)
Output status address:
16#8420(Area2, Address: 1056)
165017 (Solicitation)
16
Slave node number:
16#8032(Flexible setting mode,
Node number: 50)
Input data address:
16#00A0(Area1, Address: 160)
Input data size: 4
Output data address:
16#0108(Area1, Address: 264)
Output data size: 4
Input status address:
16#8258(Area2, Address: 600)
Output status address:
16#8420(Area2, Address: 1056)
Lock ID: 1

– 367 –JEM 1480:2023

Table 106 – Token retention time measurement start/end
Test number
Major test group
Test group
Test object
Test procedure

Evaluation criteria

V3-025General purpose command server function
Operation test of double setting tools (UDP)
Token retention time measurement start/end
Start the EUT and the test equipment, then start the dummy node.
The test equipment [the first UDP setting tool interface (hereafter called “setting toolA”)] transmits the first start frame of token retention time measuring (request).
The test equipment disengage from the network (stop the transmission of token frame.)
The test equipment rejoin the network.
The test equipment rejoin the network then the test equipment [the second UDP setting
tool interface (hereafter called “setting tool B”)] waits for 10 seconds before it transmits
the second start frame of token retention time measuring (request).
The test equipment (UDP setting tool A) transmits the first end frame of token retention
time measuring (request), 60 seconds later than receiving the second start frame oftoken retention time measuring (response) from the EUT.
The test equipment (UDP setting tool B) transmits the second end frame of token
retention time measuring frame(request) after receiving the first end frame of token
retention time measuring (response) from the EUT.
Confirm the followings:
The EUT transmits the first start response frame to the first start request from the test
equipment (UDP setting tool A).
The first start response frame is normal response (M_RLT: 0).
The EUT transmits the second start response frame to the second start request fromthe test equipment (UDP setting tool B).
The second start response frame is normal response (M_RLT: 0).
The EUT transmits the first end response frame to the first end request from the test
equipment (UDP setting tool A).
The first end response frame is normal response (M_RLT: 0), and the contents of data
are as follows: Number of tokens during measuring the token retention time is not 0.
The EUT transmits the second end response frame to the second end request from thetest equipment (UDP setting tool B).
The second end response frame is normal response (M_RLT: 0), and the contents ofdata are identical to the first end response data.

JEM 1480:2023– 368 –

Table 106 – Token retention time measurement start/end (continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)NN
R
O (in case that command server load measurement function implemented)
O (in case that command server load measurement function implemented)
O (in case that command server load measurement function implemented)
O (in case that command server load measurement function implemented)
EUT
Classes 3
Node number
1
(The
and 4
Token watchdog time
(50)
parameter
Allowable minimum(10)variesframe interval time
according to
Area 1 data top address0
the EUT
Area 1 data size
4class)
Area 2 data top address
0
Area 2 data size
16
IO allocation setting
optional(class4)
Class 5
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time
Area 1 data top address
256
Area 1 data size
256
Area 2 data top address
1 024
Area 2 data size
1 024
Classes 6
Node number
1
and 7
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address
0
Area 1 data size
To be calculated from thenumber of input points of theslave of the EUT
Area 2 data top address
0
Area 2 data size
To be calculated from thenumber of input points andoutput points of the slave of
the EUT
Test
Classes 3,
Implementation class
3 (Controller)
equipment
4 and 5
Node number
254(The
Token watchdog time
50
parameter
Allowable
minimumframe
10variesintervaltime
according to
Area 1 data top address
4
the EUTclass)
Area 1 data size
4
Area 2 data top address
64
Area 2 data size64

– 369 –JEM 1480:2023

Table 106 – Token retention time measurement start/end (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameter
variesaccording to
the EUTclass)(continued)

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum frameinterval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(Slave setting)Class 7

Dummy node

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time

4 (Flexible master)
254
50
10
Depends on number of
output points of the slave of
the EUT* 0 point: 0* 1 point of more: 256
To be calculated from thenumber of output points ofthe slave of the EUT
1 024
1 024
1

Slave node number:
16#8001(Flexible setting mode, Node
number: 1)
Input data address: 16#0000(Area1, Address: 0)
Input data size: To be
calculated from the numberof input points of the slave of
the EUT
Output data address:
Depends on number of
output points of the slave of
the EUT* 0 point: 16#0000(Area1, Address: 0)* 1 point of more: 16#0100(Area1, Address: 256)
Output data size: To be
calculated from the numberof output points of the slaveof the EUT
Input status address:
16#8000(Area2, Address: 0)
Output status address:
16#8400(Area2, Address: 1024)
3 (Controller)
254
50
10
256
4
1 024
64
3 (Controller)
250

JEM 1480:2023– 370 –

Table 106 – Token retention time measurement start/end (continued)
Setting parameter(node)(continued)

Dummy node(continued)

Setting parameter(Test data)Token
retention timemeasurement
start(First)Requestframe

Response
frame

Token
retention timemeasurement
start(Second)

Requestframe

Response
frame

Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

10
0
0
0
0
UDP setting tool A
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 020 (Token retention timemeasurement start request)
0NA
UDP setting tool A
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 220 (Token retention timemeasurement start response)
0 (normal)

0NA
UDP setting tool B
253

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 020 (Token retention timemeasurement start request)
0NA
UDP setting tool B
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
253

65 220 (Token retention timemeasurement start response)

– 371 –JEM 1480:2023

Table 106 – Token retention time measurement start/end (continued)
Setting parameter(Test data)(continued)

Tokenretention timemeasurement
start(Second)(continued)

Response
frame(continued)

Tokenretention timemeasurement
end(First)Requestframe

Response
frameType of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data(in case of M_RLT = 0)
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

Tokenretention timemeasurement
end(Second)

Requestframe

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

0 (normal)

0NA
UDP setting tool A
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 021 (Token retention timemeasurement end request)
0NA
UDP setting tool A
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 221 (Token retention timemeasurement end response)
0 (normal)

76
Number of tokens during
measuring the token
retention time: not 0
UDP setting tool B
253

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 021 (Token retention timemeasurement end request)
0NA
UDP setting tool B
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
253

65 221 (Token retention timemeasurement end response)

JEM 1480:2023– 372 –

Table 106 – Token retention time measurement start/end (continued)
Setting parameter(Test data)(continued)

Tokenretention timemeasurement
end(Second)(continued)

Response
frame(continued)

Response watchdog time(from request frametransmission to response
frame reception)

Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

0 (normal)

76
Number of tokens during
measuring the token
retention time: equal to thefirst end response

1s

Table 107 – General purpose communication data sender log measurement start/end
Test number
Major test group
Test group
Test object
Test procedure

Evaluation criteria

V3-026
General purpose command server function
Operation test of double setting tools (UDP)
General purpose communication data sender log measurement start/end
Start the EUT, then start the test equipment.
The test equipment [the first UDP setting tool interface (hereafter called “setting toolA”)] transmits the first general purpose communication data sender log measurement
start frame (request).
The test equipment transmits the first general purpose communication data 10 seconds
later than receiving the first general purpose communication data sender log
measurement start frame (response) from the EUT.
The test equipment [the second UDP setting tool interface (hereafter called “setting toolB”)] transmits the second general purpose communication data sender log
measurement start frame (request).
The test equipment transmits the second general purpose communication data after
receiving the second general purpose communication data sender log measurement
start frame (response) from the EUT.
The test equipment (UDP setting tool A) transmits the first general purpose
communication data sender log measurement stop frame (request) 60 seconds later
than receiving the second general purpose communication data sender log
measurement start frame (response) from the EUT,
The test equipment (UDP setting tool B) transmits the second general purpose
communication data sender log measurement stop frame (request) after receiving thesecond general purpose communication data sender log measurement stop frame(response) from the EUT.
Confirm the followings:
The EUT transmits the first start response frame to the first start request from the test
equipment (UDP setting tool A).
The first start response frame is normal response (M_RLT: 0).
The EUT transmits the second start response frame to the second start request fromthe test equipment (UDP setting tool B).
The second start response frame is normal response (M_RLT: 0).
The EUT transmits the first stop response frame to the first stop request from the test
equipment (UDP setting tool A).
The first stop response frame is normal response (M_RLT: 0).
The EUT transmits the second stop response frame to the second stop request fromthe test equipment (UDP setting tool B).
The second stop response frame is normal response (M_RLT: 0), and the contents ofdata are identical to the first stop response data.

– 373 –JEM 1480:2023

Table 107 – General purpose communication data sender log measurement start/end(continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)NN
R
O (in case that command server load measurement function implemented)
O (in case that command server load measurement function implemented)
O (in case that command server load measurement function implemented)
O (in case that command server load measurement function implemented)
EUT
Classes 3
Node number
1
(The
and 4
Token watchdog time
(50)
parameter
Allowable minimum(10)variesframe interval time
according to
Area 1 data top address0
the EUT
Area 1 data size
4class)
Area 2 data top address
0
Area 2 data size
16
IO allocation setting
optional(class 4)
Class 5
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time
Area 1 data top address
256
Area 1 data size
256
Area 2 data top address
1 024
Area 2 data size
1 024
Classes 6
Node number
1
and 7
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address
0
Area 1 data size
To be calculated from thenumber of input points of theslave of the EUT
Area 2 data top address
0
Area 2 data size
To be calculated from thenumber of input points andoutput points of the slave of
the EUT
Test
Classes 3, 4
Implementation class
3 (Controller)
equipment
and 5
Node number
254(The
Token watchdog time
50
parameter
Allowable
minimumframe
10variesintervaltime
according to
Area 1 data top address
4
the EUTclass)
Area 1 data size
4
Area 2 data top address
64
Area 2 data size
64

JEM 1480:2023– 374 –

Table 107 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(node)(continued)

Test
equipment(Theparameter
variesaccording to
the EUTclass)(continued)

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum frameinterval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(Slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

4 (Flexible master)
254
50
10
Depends on number of
output points of the slave of
the EUT* 0 point: 0* 1 point of more: 256
To be calculated from thenumber of output points ofthe slave of the EUT
1 024
1 024
1

Slave node number:
16#8001(Flexible setting mode, Node
number: 1)
Input data address: 16#0000(Area1, Address: 0)
Input data size: To be
calculated from the numberof input points of the slave of
the EUT
Output data address:
Depends on number of
output points of the slave of
the EUT* 0 point: 16#0000(Area1, Address: 0)* 1 point of more: 16#0100(Area1, Address: 256)
Output data size: To be
calculated from the numberof output points of the slaveof the EUT
Input status address:
16#8000(Area2, Address: 0)
Output status address:
16#8400(Area2, Address: 1024)
3 (Controller)
254
50
10
256
4
1 024
64

– 375 –JEM 1480:2023

Table 107 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(Test data)

Generalpurposecommunicati
on datasender log
measurement start(First)Requestframe

Response
frame

Generalpurposecommunicati
on data(First)Pattern 1

Pattern 2Generalpurposecommunicati
on datasender log
measurement start(Second)

Requestframe

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Type of response
message(M_RLT)
Data size( M_RLT: 0)
Contents of data
Interface
Source IP address
Destination IP address

Source port number
Destination port number
Data
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number
Destination port number
Data
Number oftransmissions
Interface
Node address ofsource side
(SNA)

UDP setting tool A
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 022 (General purpose
communication data sender
log measurement start
request)0NA
UDP setting tool A
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 222 (General purpose
communication data sender
log measurement start
response)
0 (normal)

0
NA
TCP
192.168.250.254
Depends on the EUT class* Classes 3, 4, 6 and 7:
192.168.250.1* Class 5: 192.168.250.100
55 00355 000
optional
1
UDP
1.2.3.4
1.2.3.255
10 000
10 001
optional
2
UDP setting tool B
253

JEM 1480:2023– 376 –

Table 107 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(Test data)(continued)

Generalpurposecommunicati
on datasender log
measurement start(Second)(continued)

Requestframe(continued)

Response
frame

Generalpurposecommunicati
on data(Second)Pattern N(N: 1 through6)

Node address ofdestination side
(DNA)
TCD

Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
Interface
Source IP address
Destination IP address

Source port number
Destination port number

Pattern 7

Pattern 8

Data
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number
Destination port number
Data
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number
Destination port number
Data
Number oftransmissions

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 022 (General purpose
communication data sender
log measurement start
request)0NA
UDP setting tool B
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
253

65 222 (General purpose
communication data sender
log measurement start
response)
0 (normal)

0
NA
TCP
192.168.250.(248＋N)
Depends on the EUT class* Classes 3, 4, 6 and 7:
192.168.250.1* Class 5: 192.168.250.100
54 998＋N
54 998＋N
optional
N
UDP
1.2.3.4
1.2.3.255
10 000
10 001
optional
10 times
UDP
192.168.0.254
192.168.0.255
55 00155 000
optional
9

– 377 –JEM 1480:2023

Table 107 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(Test data)(continued)

Generalpurposecommunicati
on data(Second)(continued)

Pattern 9

Pattern 10

Pattern 11

Generalpurposecommunicati
on datasender log
measurement stop(First)Requestframe

Response
frame

Interface
Source IP address
Destination IP address
Source port number
Destination port number
Data
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number
Destination port number
Data
Number oftransmissions
Interface
Source IP address
Destination IP address

Source port number
Destination port number
Data
Number oftransmissions
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)

UDP
192.168.250.125
192.168.250.255
55 00255 001
optional
8
UDP
123.45.6.78
123.45.6.255
55 00055 003
optional
7
TCP
192.168.250.200
Depends on the EUT class* Classes 3, 4, 6 and 7:
192.168.250.1* Class 5: 192.168.250.100
55 00355 000
optional
6
UDP setting tool A
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 023 (General purpose
communication data sender
log measurement stop
request)0NA
UDP setting tool A
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

JEM 1480:2023– 378 –

Table 107 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(Test data)(continued)

Generalpurposecommunicati
on datasender log
measurement stop(First)(continued)

Generalpurposecommunicati
on datasender log
measurement stop(Second)

Response
frame(continued)

Requestframe

Response
frame

TCD

Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

65 223 (General purpose
communication data sender
log measurement stop
response)
0 (normal)

84
Optional(no evaluation)
UDP setting tool B
253

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 023 (General purpose
communication data sender
log measurement stop
request)0NA
UDP setting tool B
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
253

65 223 (General purpose
communication data sender
log measurement stop
response)
0 (normal)

84
Measuring time for general
purposecommunication data senderlog:(Identical to the first stop
response)
IP1: (Identical to the first stop
response)
IP1 receiving counter:(Identical to the first stop
response)
IP2: (Identical to the first stop
response)IP2 receiving counter:(Identical to the first stop
response)
IP3: (Identical to the first stop
response)
IP3 receiving counter:(Identical to the first stop
response)

– 379 –JEM 1480:2023

Table 107 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(Test data)(continued)

Generalpurposecommunicati
on datasender log
measurement stop(Second)(continued)

Response
frame(continued)

Response watchdog time(from request frametransmission to response
frame reception)e)

Operation test of single setting tool (TCP)
Tables 108 through 123.

Contents of data
(M_RLT: 0)(continued)

IP4: (Identical to the first stop
response)
IP1 receiving counter:(Identical to the first stop
response)
IP5: (Identical to the first stop
response)
IP1 receiving counter:(Identical to the first stop
response)
IP6: (Identical to the first stop
response)
IP6 receiving counter:(Identical to the first stop
response)
IP7: (Identical to the first stop
response)
IP7 receiving counter:(Identical to the first stop
response)
IP8: (Identical to the first stop
response)
IP8 receiving counter:(Identical to the first stop
response)
IP9: (Identical to the first stop
response)
IP9 receiving counter:(Identical to the first stop
response)
IP10: (Identical to the firststop response)
IP10 receiving counter:(Identical to the first stop
response)

1s

Operation test of single setting tool (TCP) is shown in

Table 108 – IO allocation setting/read
Test number
Major test group
Test group
Test object
Test procedure

V3-027
General purpose command server function
Operation test of single setting tool (TCP)IO allocation setting/readStart the EUT, then start the test equipment.
The test equipment (setting tool interface) opens TCP connection with the EUT.
The test equipment (TCP setting tool interface) transmits IO allocation setting frame(request).
The test equipment (TCP setting tool interface) transmits IO allocation read frame(request) in case of receiving the normal response frame of IO allocation setting fromthe EUT, .
The test equipment closes TCP connection with the EUT.
The test shall be conducted with three (3) patterns of setting parameters (the numberof control slaves: 0, 1 and 248), respectively.

JEM 1480:2023– 380 –

Table 108 – IO allocation setting/read (continued)
Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

Confirm the followings:
The EUT transmits the IO allocation setting frame (response) to the IO allocation
setting request from the test equipment .
The contents of the IO allocation setting frame (response) are as follows: (Decision
criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT: 0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT: 0), notimplemented response (M_RLT: 2) or no response.
NOTE: In case of normal response, the contents of data shall be correct.
The EUT transmits the IO allocation read frame (response) to the IO allocation readrequest from the test equipment.
The contents of the IO allocation read frame (response) are as follows: (Decision
criteria varies according to the EUT class.)* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT: 0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT: 0), notimplemented response (M_RLT: 2) or no response.
NOTE: In case of normal response, the Contents of data shall be correct.
In case the contents of IO allocation setting/number of control slaves is zero (0), theEUT does not transmit any solicitation frame.
In case the contents of IO allocation setting/number of control slaves is not zero (0),the EUT transmits solicitation frame(s).
NN
O (In case TCP command server function implemented)
O (In case TCP command server function implemented)
N
N
N
Pattern 1 (Number of control slaves: 0) and Pattern 2 (Number of control slaves: 1)
EUT
Node number
1
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address
256
Area 1 data size
16
Area 2 data top address
1 024
Area 2 data size
64
IO allocation setting
optional(Case of class4)
Test
Node number
3 (Controller)
equipment
Token watchdog time
254
Allowable minimum
50
frame interval time
Area 1 data top address
10
Area 1 data size
4
Area 2 data top address
4
Area 2 data size
64
Node number64

– 381 –JEM 1480:2023

Table 108 – IO allocation setting/read (continued)
Setting parameter(node)(continued)

Setting parameter(Test data)

Pattern 3 (Number of control slaves: 248)
EUT
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
IO allocation setting(Case of class4)
Test
Node number
equipment
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node number
Pattern 1 (Number of control slaves: 0)
IO allocation
Request frame Interface
setting
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

249
(50)
(10)
256
248
4 096
3 968
optional
3 (Controller)
254
50
10
4
4
64
64
TCP setting tool interface
254

1

65 018 (IO allocation setting
request)24
Setting number: 0
Number of control slaves(whole): 0
Lock ID: 0
Lock timeout setting value: 1
Slave node number: 0
Input data address: 0
Input data size: 0
Output data address: 0
Output data size: 0
Input status address: 0
Output status address: 0

JEM 1480:2023– 382 –

Table 108 – IO allocation setting/read (continued)
Setting parameter(Test data)(continued)

IO allocation
setting(continued)

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

IO allocation
read

Request frame

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)

TCP setting tool interface
1

254

65 218 (IO allocation setting
response)
Depends on the EUT class* Classes 3 (flexible masterfunction notimplemented) and 4: 0
(normal)* Class 3 (flexible masterfunction implemented): 0(normal) or 2 (notimplemented)
8
Result: 0(normal)
Information: optional (noevaluation)
Lock ID: optional (noevaluation)
TCP setting tool interface
254

1

65 019 (IO allocation readrequest)4
Setting number: 1
TCP setting tool interface
1

254

65 219 (IO allocation read
response)
Depends on the EUT class* Classes 3 (flexible masterfunction notimplemented) and 4: 0
(normal)* Class 3 (flexible masterfunction implemented): 0(normal) or 2 (notimplemented)
20

– 383 –JEM 1480:2023

Table 108 – IO allocation setting/read (continued)
Setting parameter(Test data)(continued)

IO allocation
setting(continued)

Response
frame(continued)

Contents of data
(M_RLT: 0)

Pattern 2 (Number of control slaves: 1)
IO allocation
Request frame Interface
setting
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Setting number: 0
Number of control slaves: 0
Slave node number: optional(no evaluation)
Input data address: optional(no evaluation)
Input data size: optional (noevaluation)
Output data address:
optional (no evaluation)
Output data size: optional (noevaluation)
Input status address: optional(no evaluation)
Output status address:
optional (no evaluation)
TCP setting tool interface
254

1

65 018 (IO allocation setting
request)24
Setting number: 1
Number of control slaves(whole): 1
Lock ID: 0
Lock timeout setting value: 2
Slave node number:
16#800D(Flexible setting mode, Node
number: 13)
Input data address: 16#0118(Area1, Address: 280)
Input data size: 4
Output data address:
16#010C(Area1, Address: 268)
Output data size: 4
Input status address:
16#8460(Area2, Address: 1 120)
Output status address:
16#8430(Area2, Address: 1 072)
TCP setting tool interface
1

254

65 218 (IO allocation setting
response)

JEM 1480:2023– 384 –

Table 108 – IO allocation setting/read (continued)
Setting parameter(Test data)(continued)

IO allocation
setting(continued)

Response
frame(continued)

Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

IO allocation
read

Request frame

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

Depends on the EUT class* Classes 3 (flexible masterfunction notimplemented) and 4: 0
(normal)* Class 3 (flexible masterfunction implemented): 0(normal) or 2 (notimplemented)
8
Result: 0 (normal)
Information: optional (noevaluation)
Lock ID: not 0
TCP setting tool interface
254

1

65 019 (IO allocation readrequest)4
Setting number: 1
TCP setting tool interface
1

254

65 219 (IO allocation read
response)
Depends on the EUT class* Classes 3 (flexible masterfunction notimplemented) and 4: 0
(normal)* Class 3 (flexible masterfunction implemented): 0(normal) or 2 (notimplemented)
20
Setting number: 1
Number of control slaves: 1
Slave node number:
16#800D(Flexible setting mode, Node
number: 13)
Input data address: 16#0118(Area1, Address: 280)
Input data size: 4
Output data address:
16#010C(Area1, Address: 268)

– 385 –JEM 1480:2023

Table 108 – IO allocation setting/read (continued)
Setting parameter(Test data)(continued)

IO allocation
read(continued)

Response
frame(continued)

Solicitation frame

Contents of data
(M_RLT: 0)

Node address ofsource side
(SNA)
TCD
Data size
Contents of data

Pattern 3 (Number of control slaves: 248)
Request frame Interface(N: 0～247)
Node address of
IO allocation
source side
setting(SNA)(N: 0 through247)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Output data size: 4
Input status address:
16#8460(Area2, Address: 1 120)
Output status address:
16#8430(Area2, Address: 1 072)1

65 017(solicitation)
16
Slave node number:
16#800D(Flexible setting mode, Node
number: 13)
Input data address: 16#0118(Area1, Address: 280)
Input data size: 4
Output data address:
16#010C(Area1, Address: 268)
Output data size: 4
Input status address:
16#8460(Area2, Address: 1 120)
Output status address:
16#8430(Area2, Address: 1 072)
Lock ID: 1
TCP setting tool interface
254

249

65 018 (IO allocation setting
request)24
Setting number: N + 1
Number of control
slaves(The whole): 248
Lock ID: Depends on setting
number* Setting number1: 0* Setting number2～248:
Response Lock ID ofsetting number1
Lock timeout setting value:
248
Slave node number:
16#8001 + N(Flexible setting mode, Node
number: 1 + N)
Input data address: 16#0000+N(Area1, Address: N)

JEM 1480:2023– 386 –

Table 108 – IO allocation setting/read (continued)
Setting parameter(Test data)(continued)(N: 0～247)
IO allocation
setting(N: 0 through247)(continued)

Request frame(continued)

Contents of data(continued)

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)(N: 0～247)

Request frame

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side(DNA)

Input data size: 1
Output data address:
16#0100 + N(Area1, Address: 256 + N)
Output data size: 1
Input status address:
16#8000 + (16 ×N)(Area2, Address: 16 × N)
Output status address:
16#9000 + (16 ×N)(Area2, Address: 4 096＋16
× N)
TCP setting tool interface
249

254

65 218 (IO allocation setting
response)
Depends on the EUT class* Classes 3 (flexible masterfunction notimplemented) and 4: 0
(normal)* Class 3 (flexible masterfunction implemented): 0(normal) or 2 (notimplemented)
8* N: 0 through 246: 1(continue)* N: 247: 0 (normal)
Information: optional (noevaluation)
Lock ID: same value except
0 at N: 0 through 247,
TCP setting tool interface
254

249

65 019 (IO allocation readrequest)4
Setting number: N + 1
TCP setting tool interface
249

254

– 387 –JEM 1480:2023

Table 108 – IO allocation setting/read (continued)
Setting parameter(Test data)(continued)(N: 0～247)
IO allocationread(N: 0 through247)(continued)

Response
frame(continued)

TCD
Type of response
message(M_RLT)

Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

Solicitation
frame(divided by
four)First division
frame

Node address ofsource side
(SNA)
TCD
Data size
Contents of data(for 64 nodes)(N: 0 through 63)

65 219 (IO allocation read
response)
Depends on the EUT class* Classes 3 (flexible masterfunction notimplemented) and 4: 0
(normal)* Class 3 (flexible masterfunction implemented): 0(normal) or 2 (notimplemented)
20
Setting number: N + 1
Number of control slaves:
248
Slave node number:
16#8001 + N(Flexible setting mode, Node
number: 1 + N)
Input data address: 16#0000+N(Area1, Address: N)
Input data size: 1
Output data address:
16#0100 + N(Area1, Address: 256 + N)
Output data size: 1
Input status address:
16#8000 + (16 ×N)(Area2, Address: 16 × N)
Output status address:
16#9000 + (16 ×N)(Area2, Address: 4 096＋16
× N)
249

65 017 (solicitation)
1 024
Slave node number:
16#8001 + N(Flexible setting mode, Node
number: 1 + N)
Input data address: 16#0000+N(Area1, Address: N)
Input data size: 1
Output data address:
16#0100 + N(Area1, Address: 256 + N)
Output data size: 1
Input status address:
16#8000 + (16 ×N)(Area2, Address: 16 × N)
Output status address:
16#9000 + (16 ×N)(Area2, Address: 4 096＋16
× N)
Lock ID: 249

JEM 1480:2023– 388 –

Table 108 – IO allocation setting/read (continued)
Setting parameter(Test data)(continued)

Solicitation
frame(divided byfour)(continued)

Seconddivision
frame

Third division
frame

Node address ofsource side
(SNA)
TCD
Data size
Contents of data(for 64 nodes)(N: 0～63)

Node address ofsource side
(SNA)
TCD
Data size
Contents of data(for 64 nodes)(N: 0～63)249

65 017 (solicitation)
1 024
Slave node number:
16#8041 + N(Flexible setting mode, Node
number: 65 + N)
Input data address: 16#0040+N(Area1, Address: 64 + N)
Input data size: 1
Output data address:
16#0140 + N(Area1, Address: 320 + N)
Output data size: 1
Input status address:
16#8400 + (16 ×N)(Area2, Address: 1024 + 16
× N)
Output status address:
16#9400 + (16 ×N)(Area2, Address: 5 120＋16
× N)
Lock ID: 249
249

65 017 (solicitation)
1 024
Slave node number:
16#8081 + N(Flexible setting mode, Node
number: 129 + N)
Input data address: 16#0080+N(Area1, Address: 128 + N)
Input data size: 1
Output data address:
16#0180 + N(Area1, Address: 384 + N)
Output data size: 1
Input status address:
16#8800 + (16 ×N)(Area2, Address: 2048 + 16
× N)
Output status address:
16#9800 + (16 ×N)(Area2, Address: 6 144＋16
× N)
Lock ID: 249

– 389 –JEM 1480:2023

Table 108 – IO allocation setting/read (continued)
Setting parameter(Test data)(continued)

Solicitation
frame(divided byfour)(continued)

Fourth divisionframe

Response watchdog time(from request frametransmission to response
frame reception)

Node address ofsource side
(SNA)
TCD
Data size
Contents of data(for 56 nodes)(N: 0～55)

1s

249

65 017 (solicitation)
896
Slave node number:
16#80C1 + N(Flexible setting mode, Node
number: 193 + N)
Input data address: 16#00C0+N(Area1, Address: 192 + N)
Input data size: 1
Output data address:
16#01C0 + N(Area1, Address: 448 + N)
Output data size: 1
Input status address:
16#8C00 + (16 ×N)(Area2, Address: 3 072 + 16
× N)
Output status address:
16#9C00 + (16 ×N)(Area2, Address: 7 168＋16
× N)
Lock ID: 249

JEM 1480:2023– 390 –

Table 109 – Token retention time measurement start/end
Test number
Major test group
Test group
Test object
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

Setting parameter(node)

V3-028General purpose command server function
Operation test of single setting tool (TCP)
Token retention time measurement start/end
Start the EUT and the test equipment, then start the dummy node.
The test equipment (setting tool interface) opens TCP connection with the EUT.
The test equipment (TCP setting tool interface) transmits a token retention timemeasurement start (request).
The test equipment disengage from the network. (stop the transmission of token
frame.)The test equipment rejoin the network.
The test equipment (TCP setting tool interface) transmits a token retention timemeasurement end (request) 60 seconds later than receiving a token retention timemeasurement start frame (normal response),
The test equipment transmits a log data read message (request).
The test equipment closes TCP connection with the EUT.
Confirm the followings:
The EUT transmits the token retention time measurement start frame (response) to thetoken retention time measurement start request from the test equipment.
The token retention time measurement start frame (response) is normal response(M_RLT: 0).
The EUT transmits a token retention time measurement end frame (response) to thetoken retention time measurement end request from the test equipment.
The token retention time measurement end frame (response) is normal
response(M_RLT: 0), and contents of the data are as follows:* Number of tokens during measuring the token retention time is not zero (0).
The EUT transmits a log data read message (response) to the log data read requestfrom the test equipment.
The log data read message (response) is normal response (M_RLT: 0), and contentsof the data are as follows:* The measuring time for token retention time is identical to the token retention timemeasurement end response.
* Number of tokens during measuring the token retention time is not zero (0).
N
N
O (In case TCP command server function implemented)
O (In case TCP command server function and command server load measurement
function implemented)
O (In case TCP command server function and command server load measurement
function implemented)
O (In case TCP command server function and command server load measurement
function implemented)
O (In case TCP command server function and command server load measurement
function implemented)
EUT
Classes 3 andNode number
1(The
4
Token watchdog time
(50)
parameter
Allowable minimum(10)variesframe interval time
according to
Area 1 data top address 0
the EUT
Area 1 data size
4class)
Area 2 data top address 0

– 391 –JEM 1480:2023

Table 109 – Token retention time measurement start/end (continued)
Setting parameter(node)

EUT(The
parameter
variesaccording to
the EUTclass)(continued)

Classes 3 and
4(continued)
Class 5Classes 6 and
7Area 2 data size
IO allocation setting(class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(Theparameter
variesaccording to
the EUTclass)Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)16
optional
100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave of the EUT0To be calculated from thenumber of input points andoutput points of the slave of
the EUT
3 (Controller)
254
50
10
4
4
64
64
4 (Flexible master)
254
50
10
Depends on number of
output points of the slave of
the EUT* 0 point: 0* 1 point of more: 256
To be calculated the size
from number of output pointsof the slave of the EUT
1 024
1 024
1

JEM 1480:2023– 392 –

Table 109 – Token retention time measurement start/end (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameter
variesaccording to
the EUTclass)(continued)

Class 6
(continued)

IO allocation setting(Slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address ofsource side
(SNA)
Node address ofdestination side(DNA)dummy node

Setting parameter(Test data)Token
retentiontime
measurement start

Request frame

Slave node number:
16#8001(Flexible setting mode, Node
number: 1)
Input data address: 16#0000(Area1, Address: 0)
Input data size: To be
calculated from the numberof input points of the slave of
the EUT
Output data address:
Depends on number of
output points of the slave of
the EUT* 0 point: 16#0000(Area1, Address: 0)* 1 point of more: 16#0100(Area1, Address: 256)
Output data size: To be
calculated from the numberof output points of the slaveof the EUT
Input status address:
16#8000(Area2, Address: 0)
Output status address:
16#8400(Area2, Address: 1024)
3 (Controller)
254
50
10
256
4
1 024
64
3 (Controller)
2
50
10
0
0
0
0
TCP setting tool interface
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100

– 393 –JEM 1480:2023

Table 109 – Token retention time measurement start/end (continued)
Setting parameter(Test data)(continued)

Tokenretentiontime
measurement start(continued)

Tokenretentiontime
measurement end

Request frame(continued)

Response
frame

Request frame

Response
frame

TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

Log data
read

Requestmessage

Interface
Node address ofsource side
(SNA)

65 020 (token retention timemeasurement start request)
0NA
TCP setting tool interface
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 220 (token retention timemeasurement start response)
0 (normal response)0NA
TCP setting tool interface
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 021 (token retention timemeasurement end request)
0NA
TCP setting tool interface
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 221 (token retention timemeasurement end response)
0 (normal response)76
Number of tokens during
measuring the token
retention time: not 0
FL-net message
254

JEM 1480:2023– 394 –

Table 109 – Token retention time measurement start/end (continued)
Setting parameter(Test data)(continued)

Log data
read(continued)

Requestmessage(continued)

Response
message

Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size
Contents of data

Response watchdog time(from request frametransmission to response
frame reception)

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 013 (Log data readrequest)0NAFL-net message
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 013 (Log data read
response)
0 (normal response)

512
measuring time for token
retention time: (token
retention time measurement
end response)
Number of tokens during
measuring the token
retention time: (token
retention timemeasurement end response)

1s

Table 110 – General purpose communication data sender log measurement start/end
Test number
Major test group
Test group
Test object
Test procedure

V3-029General purpose command server function
Operation test of single setting tool (TCP)
General purpose communication data sender log measurement start/end
Start the EUT, then start the test equipment.
The test equipment (setting tool interface) opens TCP connection with the EUT.
The test equipment transmits a general purpose communication data.
The test equipment (TCP setting tool interface) transmits a general purpose
communication data sender log measurement start frame (request).
The test equipment transmits a general purpose communication data.
The test equipment (TCP setting tool interface) transmits a general purpose
communication data sender log measurement end frame (request) 60 seconds later
than receiving a general purpose communication data sender log measurement startframe (normal response) from the EUT.
The test equipment transmits a log data read message (request).
The test equipment closes TCP connection with the EUT.

– 395 –JEM 1480:2023

Table 110 – General purpose communication data sender log measurement start/end(continued)
Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

Setting parameter(node)

Confirm the followings:
The EUT transmits a general purpose communication data sender log measurement
start frame (response) to a general purpose communication data sender log
measurement start request from the test equipment.
The general purpose communication data sender log measurement start frame(response) is normal response (M_RLT: 0).
The EUT transmits a general purpose communication data sender log measurement
end frame (response) to a general purpose communication data sender log
measurement end request from the test equipment.
The general purpose communication data sender log measurement end frame(response) is normal response (M_RLT: 0).
The EUT transmits a log data read message (response) to the log data read requestfrom the test equipment.
The log data read message (response) is normal response (M_RLT: 0), and contentsof the data are as follows:* The measuring time for general purpose communication data sender log is identical to
the general purpose communication data sender log measurement end response.
* IP1through IP10 (receiving counters) are identical to the general purpose
communication data sender log measurement end response.
NN
O (In case TCP command server function implemented)
O (In case TCP command server function and command server load measurement
function implemented)
O (In case TCP command server function and command server load measurement
function implemented)
O (In case TCP command server function and command server load measurement
function implemented)
O (In case TCP command server function and command server load measurement
function implemented)
EUT
Classes 3 andNode number
1(The
4
Token watchdog time
(50)
parameter
Allowable minimum(10)variesframe interval time
according to
Area 1 data top address 0
the EUT
Area 1 data size
4class)
Area 2 data top address 0
Area 2 data size
16
IO allocation setting
optional(class 4)
Class 5
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time
Area 1 data top address 256
Area 1 data size
256
Area 2 data top address 1 024
Area 2 data size
1 024

JEM 1480:2023– 396 –

Table 110 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(node)(continued)

EUT
(The
parameter
variesaccording to
the EUTclass)(continued)

Classes 6 and
7Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(Theparameter
variesaccording to
the EUTclass)Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(Slave setting)

1
(50)
(10)
0
To be calculated from thenumber of input points of theslave of the EUT0To be calculated from thenumber of input points andoutput points of the slave of
the EUT
3 (Controller)
254
50
10
4
4
64
64
4 (Flexible master)
254
50
10
Depends on number of
output points of the slave of
the EUT* 0 point: 0* 1 point of more: 256
To be calculated from thenumber of output points ofthe slave of the EUT
1 024
1 024
1

Slave node number:
16#8001(Flexible setting mode, Node
number: 1)
Input data address: 16#0000(Area1, Address: 0)
Input data size: To be
calculated from the numberof input points of the slave of
the EUT– 397 –JEM 1480:2023

Table 110 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(node)(continued)

Setting parameter(Test data)

Test
equipment(Theparameter
variesaccording to
the EUTclass)(continued)

Generalpurposecommunication
data senderlogmeasurement
start

Class 6
(continued)

IO allocation setting(Slave setting)(continued)

Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Requestframe

Response
frame

Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Type of response
message(M_RLT)

Output data address:
Depends on number of
output points of the slave of
the EUT* 0 point: 16#0000(Area1, Address: 0)* 1 point of more: 16#0100(Area1, Address: 256)
Output data size: To be
calculated from the numberof output points of the slaveof the EUT
Input status address:
16#8000(Area2, Address: 0)
Output status address:
16#8400(Area2, Address: 1024)
3 (Controller)
254
50
10
256
4
1 024
64
TCP setting tool interface
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 022 (general purpose
communication data sender
log measurement start
request)0
NA
TCP setting tool interface
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 222 (general purpose
communication data sender
log measurement start
response)
0 (normal response)

JEM 1480:2023– 398 –

Table 110 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(Test data)(continued)

Generalpurposecommunication
data senderlogmeasurement
start(continued)
Generalpurposecommunication
data

Response
frame(continued)

Data size(M_RLT: 0)
Contents of data

0

Pattern N(N: 1 through6)

Interface
Source IP address
Destination IP address

TCP
192.168.250.(248 + N)
Depends on the EUT class* Classes 3, 4, 6 and 7:
192.168.250.1* Class 5: 192.168.250.100
54 998＋N

Source port number
Destination port number

Pattern 7

Pattern 8

Pattern 9

Pattern 10

Pattern 11

Data
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number
Destination port number
Data
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number
Destination port number
Data
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number
Destination port number
Data
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number
Destination port number
Data
Number oftransmissions
Interface
Source IP addressNA

54 998＋N
optional
N
UDP
1.2.3.4
1.2.3.255
10 000
10 001
optional
10 times
UDP
192.168.0.254
192.168.0.255
55 00155 000
optional
9
UDP
192.168.250.125
192.168.250.255
55 00255 001
optional
8
UDP
123.45.6.78
123.45.6.255
55 00055 003
optional
7
TCP
192.168.250.200

– 399 –JEM 1480:2023

Table 110 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(Test data)(continued)

Generalpurposecommunication
data(continued)

Pattern 11(continued)

Generalpurposecommunication
data senderlogmeasurement
end

Requestframe

Responseframe

Log data read

Requestmessage

Destination IP address

Source port number
Destination port number
Data
Number oftransmissions
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Depends on the EUT class* Classes 3, 4, 6 and 7:
192.168.250.1* Class 5: 192.168.250.100
55 00355 000
optional
6
TCP setting tool interface
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 023 (General purpose
communication data sender
log measurement stop
request)0
NA
TCP setting tool interface
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 223 (General purpose
communication data sender
log measurement stop
response)0(normal)84
Optional(no evaluation)
FL-net message
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 013 (Log data readrequest)0
NAJEM 1480:2023– 400 –

Table 110 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(Test data)(continued)

Log data read(continued)

Response
message(continued)

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)
Data size
Contents of data

FL-net message
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254
65 213(Log data read response)0(normal)
512
Measuring time for general
purpose communication data
sender log: (Identical to General
purpose communication data
sender log measurement stop
response)
IP1: (Identical to General purpose
communication data sender log
measurement stop response)
IP1 receiving counter: (Identical toGeneral purpose communication
data sender log measurement
stop response)
IP2: (Identical to General purpose
communication data sender log
measurement stop response)IP2 receiving counter: (Identical toGeneral purpose communication
data sender log measurement
stop response)
IP3: (Identical to General purpose
communication data sender log
measurement stop response)IP3 receiving counter: (Identical toGeneral purpose communication
data sender log measurement
stop response)
IP4: (Identical to General purpose
communication data sender log
measurement stop response)
IP4 receiving counter: (Identical toGeneral purpose communication
data sender log measurement
stop response)
IP5: (Identical to General purpose
communication data sender log
measurement stop response)
IP5 receiving counter: (Identical toGeneral purpose communication
data sender log measurement
stop response)
IP6: (Identical to General purpose
communication data sender log
measurement stop response)IP6 receiving counter: (Identical toGeneral purpose communication
data sender log measurement
stop response)
IP7: (Identical to General purpose
communication data sender log
measurement stop response)
IP7 receiving counter: (Identical toGeneral purpose communication
data sender log measurement
stop response)
IP8: (Identical to General purpose
communication data sender log
measurement stop response)
IP8 receiving counter: (Identical toGeneral purpose communication
data sender log measurement
stop response)

– 401 –JEM 1480:2023

Table 110 – General purpose communication data sender log measurement start/end(continued)
Setting parameter(Test data)(continued)

Log data
read(continued)

Response
message(continued)

Response watchdog time(from request frametransmission to response
frame reception)

Contents of data(continued)

IP9: (Identical to General purpose
communication data sender log
measurement stop response)
IP9 receiving counter: (Identical toGeneral purpose communication
data sender log measurement
stop response)
IP10: (Identical to General
purpose communication data
sender log measurement stop
response)
IP10 receiving counter: (Identicalto General purpose
communication data sender log
measurement stop response)

1s

Table 111 – Configuration parameter setting, and self node setting information
parameter read
Test number
Major test group
Test group
Test object
Test procedure

Evaluation criteria

V3-030General purpose command server function
Operation test of single setting tool (TCP)
Configuration parameter setting, and self node setting information parameter readStart the EUT and the test equipment, then start the dummy node.
The test equipment (setting tool interface) opens TCP connection with the EUT.
The test equipment (TCP setting tool interface) transmits a configuration parametersetting frame (request).
The test equipment (TCP setting tool interface) transmits a self node setting
information parameter read frame (request) after receiving the configuration parametersetting frame (normal response) from the EUT .
The test equipment closes TCP connection with the EUT.
Confirm the followings:
The EUT transmits a configuration parameter setting frame (response) to aconfiguration parameter setting request from the test equipment.
The contents of a configuration parameter setting frame (response) are as follows:(Decision criteria varies according to the EUT class.)* Class3, 4, 6: Normal response (M_RLT: 0)* Classes 5 and 7: Normal response (M_RLT: 0), not-implemented response (M_RLT: 2)
or no response.
NOTE: In case of normal response, the contents of data shall be identical to the request
data.
The EUT transmits a self node setting information parameter read frame (response) tothe self node setting information parameter read request from the test equipment.
The contents of the self node setting information parameter read frame (response) are
as follows; (Decision criteria varies according to the EUT class.)* Classes 3, 4 and 6: Normal response (M_RLT: 0)* Classes 5 and 7: Normal response (M_RLT: 0), not-implemented response (M_RLT: 2)
or no response.
NOTE: The contents of data in the normal response are identical to the configuration
parameter setting request data.

JEM 1480:2023– 402 –

Table 111 – Configuration parameter setting, and self node setting information
parameter read (continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)NN
O (In case TCP command server function implemented)
O (In case TCP command server function implemented)
O (In case TCP command server function implemented)
O (In case TCP command server function implemented)
O (In case TCP command server function implemented)
EUT
Classes 3 andNode number(The
4
Token watchdog timeparameter
Allowable minimum
variesframe interval time
according to
Area 1 data top address
the EUT
Area 1 data sizeclass)
Area 2 data top address
Area 2 data size
IO allocation setting(Case of class4)
Class 5
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Classes 6 andNode number
7
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(Theparameter
variesaccording to
the EUTclass)Classes 3, 4
and 5

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

1
(50)
(10)
0
4
0
16
optional
100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
To be calculated from thenumber of input points of theslave of the EUT0To be calculated from thenumber of input points andoutput points of the slave of
the EUT
3 (Controller)
254
50
10
4
4
64
64

– 403 –JEM 1480:2023

Table 111 – Configuration parameter setting, and self node setting information
parameter read (continued)
Setting parameter(node)(continued)

Test
equipment(Theparameter
variesaccording to
the EUTclass)(continued)

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(Slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

4 (Flexible master)
254
50
10
Depends on number of
output points of the slave of
the EUT* 0 point: 0* 1 point of more: 256
To be calculated from thenumber of output points ofthe slave of the EUT
1 024
1 024
1

Slave node number:
16#8001(Flexible setting mode, Node
number: 1)
Input data address: 16#0000(Area1, Address: 0)
Input data size: To be
calculated from the numberof input points of the slave of
the EUT
Output data address:
Depends on number of
output points of the slave of
the EUT* 0 point: 16#0000(Area1, Address: 0)* 1 point of more: 16#0100(Area1, Address: 256)
Output data size: To be
calculated from the numberof output points of the slaveof the EUT
Input status address:
16#8000(Area2, Address: 0)
Output status address:
16#8400(Area2, Address: 1024)
3 (Controller)
254
50
10
256
4
1 024
64

JEM 1480:2023– 404 –

Table 111 – Configuration parameter setting, and self node setting information
parameter read (continued)
Setting parameter(Test data)

Configuration
parameter
setting

Request frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

TCP setting tool interface
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 024 (configuration
parameter setting request)
28
Update flag: Depends on the
EUT class* Classes 3 and 4: 16#000F* Class5, 6, 7: 16#000E
Node name: “RenewNode1”
Common memory Area 1
data top address: 256
Common memory Area 1
data size: 128
Common memory Area 2
data top address: 4 096
Common memory Area 2
data size: 1 024
Token watchdog time: 200
Allowable minimum frameinterval time: 15
TCP setting tool interface
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 224 (configuration
parameter setting response)
Depends on the EUT class* Class3, 4, 6: 0 (normal)* Class5, 7: 0 (normal) or 2
(not-implemented)
24Node name: “RenewNode1”
Common memory Area 1
data top address:
Depends on the EUT class* Classes 3, and 4: 256* Class 5: 256* Classes 6 and 7: 0

– 405 –JEM 1480:2023

Table 111 – Configuration parameter setting, and self node setting information
parameter read (continued)
Setting parameter(Test data)(continued)

Configuration
parameter
setting(continued)

Self nodesetting
information
parameter
read

Response
frame(continued)

Request frame

Response
frame

Contents of data
(M_RLT: 0)(continued)

Interface

Common memory Area 1
data size:
Depends on the EUT class* Classes 3 and 4: 128* Class 5: 256* Classes 6 and 7: To be
calculated from the numberof input points of the slaveof the EUT
Common memory Area 2
data top address:
Depends on the EUT class* Classes 3 and 4: 4 096* Class 5: 1 024* Classes 6 and 7: 0
Common memory Area 2
data size:
Depends on the EUT class* Classes 3 and 4: 1 024* Class 5: 1 024* Classes 6 and 7: To be
calculated from the numberof input points and output
points of the slave of the
EUT
Token watchdog time: 200
Allowable minimum frameinterval time: 15
TCP setting tool interface

Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)

254

TCD

Data size

65 027 (self node setting
information
parameter read request)
0

Contents of data

NAInterface

TCP setting tool interface

Node address ofsource side
(SNA)

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100

Node address ofdestination side
(DNA)
TCD

254

Type of response
message(M_RLT)
Data size(M_RLT: 0)

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100

65 227 (self node setting
information
parameter read response)
Depends on the EUT class* Class3, 4, 6: 0 (normal)* Class5, 7: 0 (normal) or 2
(not-implemented)
24

JEM 1480:2023– 406 –

Table 111 – Configuration parameter setting, and self node setting information
parameter read (continued)
Setting data
(Test data)(continued)

Self nodesetting
information
parameter
read(continued)

Response
frame(continued)

Contents of data
(M_RLT: 0)

Common memory Area 1
data top address:
Depends on the EUT class* Classes 3 and 4: 256* Class 5: 256* Classes 6 and 7: 0
Common memory Area 1
data size:
Depends on the EUT class* Classes 3 and 4: 128* Class 5: 256* Classes 6 and 7: To be
calculated from the numberof input points of the slaveof the EUT
Common memory Area 2
data top address:
Depends on the EUT class* Classes 3 and 4: 4 096* Class 5: 1 024* Classes 6 and 7: 0
Common memory Area 2
data size:
Depends on the EUT class* Classes 3 and 4: 1 024* Class 5: 1 024* Classes 6 and 7: To be
calculated from the numberof input points and output
points of the slave of the
EUT
Token watchdog time: 200
Allowable minimum frameinterval time: 15
Node name: “RenewNode1”

Response watchdog time(from request frametransmission to response
frame reception)

1s

Table 112 – Participation node management information parameter read
Test number

V3-031

Major test group

General purpose command server function

Test group

Operation test of single setting tool (TCP)

Test object

Participation node management information parameter read

Test procedure

Start the EUT and the test equipment, then start the dummy node.
The test equipment (setting tool interface) opens TCP connection with the EUT.
The test equipment (TCP setting tool interface) transmits a participation nodemanagement information parameter read frame (request, node number: the EUT).
The test equipment (TCP setting tool interface) transmits a participation nodemanagement information parameter read frame (request, node number: the test
equipment).
The test equipment closes TCP connection with the EUT.

– 407 –JEM 1480:2023

Table 112 – Participation node management information parameter read (continued)
Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1

Confirm the followings:
The EUT transmits the response frames two times for the two request frames.
The contents of two response frames are normal response (M_RLT: 0),and thecontents of data are correct.
N

Class 2

N

Class 3O (In case TCP command server function implemented)

Class 4O (In case TCP command server function implemented)

Class 5O (In case TCP command server function implemented)

Class 6N

Class 7N

Setting parameter(node)

EUT(The
parameter
variesaccording to
the EUTclass)Classes 3 and4Class 5Test
equipment

Classes 3, 4
and 5

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

4

Area 2 data top address

0

Area 2 data size

16

IO allocation setting(Class 4)
Node number

optional

Token watchdog time(100)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

256

Area 2 data top address

1 024

Area 2 data size

1 024

Implementation class

3 (Controller)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top address

10

Area 1 data size

4

Area 2 data top address

64

Area 2 data size

64

0

100

256

4

JEM 1480:2023– 408 –

Table 112 – Participation node management information parameter read (continued)
Setting parameter(Test data)

Participation
node
management
information
parameter
read
(Node
number: The
EUT)

Request frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Data size
Contents of data

Response
frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

TCP setting tool interface
254

Depends on the EUT class* Classes 3 and 4: 1
* Class 5: 100
65 025 (Participation nodemanagement
information parameter readrequest)4
Node number: Depends on
the EUT class* Classes 3 and 4: 1
* Class 5: 100
TCP setting tool interface
Depends on the EUT class* Classes 3 and 4: 1
* Class 5: 100
254

65 225 (Participation nodemanagement
information parameter read
response)
0 (normal)

20
Node number: Depends on
the EUT class* Classes 3 and 4: 1
* Class 5: 100
Common memory Area 1
data top address:
Depends on the EUT class* Classes 3 and 4: 0
* Class 5: 256
Common memory Area 1
data size:
Depends on the EUT class* Classes 3 and 4: 4
* Class 5: 256
Common memory Area 2
data top address:
Depends on the EUT class* Classes 3 and 4: 0
* Class 5: 1 024
Common memory Area 2
data size:
Depends on the EUT class* Classes 3 and 4: 16* Class 5: 1 024

– 409 –JEM 1480:2023

Table 112 – Participation node management information parameter read (continued)
Setting parameter(Test data)(continued)

Participation
node
management
information
parameter
read
(Node
number: The
EUT)(continued)
Participation
node
management
information
parameter
read
(Node
number: The test
equipment)

Response
frame(continued)

Contents of data
(M_RLT: 0)(continued)

Allowable refresh cycle time:(no evaluation)
Token watchdog time: (noevaluation)
Allowable minimum frameinterval time:(no evaluation)
FA link status: (noevaluation)

Request frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

TCP setting tool interface
254

Response
frame

Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Type of response
message(M_RLT)
Data size(M_RLT: 0)
Contents of data
(M_RLT: 0)

Response watchdog time(from request frametransmission to response
frame reception)

1s

Depends on the EUT class* Classes 3 and 4: 1
* Class 5: 100
65 025 (Participation nodemanagement
information parameter readrequest)4
254
TCP setting tool interface
Depends on the EUT class* Classes 3 and 4: 1
* Class 5: 100
254

65 225 (Participation nodemanagement
information parameter read
response)
0 (normal)

20
Node number: 254
Common memory Area 1
data top address: 4
Common memory Area 1
data size: 4
Common memory Area 2
data top address: 64
Common memory Area 2
data size: 64
Allowable refresh cycle time:(no evaluation)
Token watchdog time: 50
Allowable minimum frameinterval time: 10
FA link status: (noevaluation)

JEM 1480:2023– 410 –

Table 113 – Self node management information parameter read
Test number

V3-032Major test group

General purpose command server function

Test group

Operation test of single setting tool (TCP)

Test object

Self node management information parameter read

Test procedure

Class 1

Start the EUT and the test equipment, then start the dummy node.
The test equipment (setting tool interface) opens TCP connection with the EUT.
The test equipment (TCP setting tool interface) transmits a self node management
information parameter read frame (request).
The test equipment closes TCP connection with the EUT.
Confirm the followings:
The EUT transmits a response frame to the request frame.
The response frame is normal response (M_RLT: 0), and the contents of data are
identical to the EUT setting contents.
N

Class 2

N

Class 3O (In case TCP command server function implemented)

Class 4O (Incase TCP command server function implemented)

Class 5O (In case TCP command server function implemented)

Class 6

O (In case TCP command server function implemented)

Class 7O (In case TCP command server function implemented)

Evaluation criteria

Test
necessity
identified
by theEUT classSetting parameter(node)

EUT(The
parameter
variesaccording to
the EUTclass)Classes 3 and4Class 5Classes 6 and
7Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

4

Area 2 data top address

0

Area 2 data size

16

Node name“TargetNode”

IO allocation setting(Class 4)
Node number

optional

Token watchdog time(100)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

256

Area 2 data top address

1 024

Area 2 data size

1 024

Node name“TargetNode”

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time

(10)

0

100

256

– 411 –JEM 1480:2023

Table 113 – Self node management information parameter read
Setting parameter(node)(continued)

EUT
(The
parameter
variesaccording to
the EUTclass)(continued)

Classes 6 and
7(continued)

Test
equipment(Theparameter
variesaccording to
the EUTclass)Classes 3, 4
and 5

Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Class6

Node name
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(Slave setting)0
To be calculated fromnumber of input points of theslave, the EUT0To be calculated fromnumbers of input and output
points of the slave, the EUT“TargetNode”
3 (Controller)
254
50
10
4
4
64
64
4 (Flexible master)
254
50
10
Depends on number of
output points of the slave of
the EUT* 0 point: 0* 1 point of more: 256
To be calculated from thenumber of output points ofthe slave of the EUT
1 024
1 024
1

Slave node number:
16#8001(Flexible setting mode, Node
number: 1)
Input data address: 16#0000(Area1, Address: 0)
Input data size: To be
calculated the size fromnumber of input points of theslave of the EUT
Output data address:
Depends on number of
output points of the slave of
the EUT* 0 point: 16#0000(Area1, Address: 0)* 1 point of more: 16#0100(Area1, Address: 256)
Output data size: To be
calculated from the numberof output points of the slaveof the EUT
Input status address:
16#8000(Area2, Address: 0)

JEM 1480:2023– 412 –

Table 113 – Self node management information parameter read (continued)
Setting parameter(node)(continued)

Setting parameter(Test data)

Test
equipment(Theparameter
variesaccording to
the EUTclass)(continued)

Class 6
(continued)
Class 7

Request frame

Response frame

IO allocation setting(Slave setting)(continued)
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Data size
Contents of data
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Type of response
message(M_RLT)
Data size
Contents of data

Output status address:
16#8400(Area2, Address: 1024)
3 (Controller)
254
50
10
256
4
1 024
64
TCP setting tool interface
254

Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 026 (Self nodemanagement information
parameter read request)
0NA
TCP setting tool interface
Depends on the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 226 (Self nodemanagement information
parameter read response)
0 (normal response)64
Node number: Depends on
the EUT class* Classes 3, 4, 6 and 7: 1
* Class 5: 100
Common memory Area 1
data top address:
Depends on the EUT class* Classes 3, 4, 6 and 7: 0
* Class 5: 256

– 413 –JEM 1480:2023

Table 113 – Self node management information parameter read (continued)
Setting parameter(Test data)(continued)

Response frame(continued)

Contents of data(continued)

Response watchdog time(from request frametransmission to response
frame reception)

1s

Common memory Area 1
data size:
Depends on the EUT class* Classes 3 and 4: 4
* Class 5: 256* Classes 6 and 7: To be
calculated from the numberof input points of the slaveof the EUT
Common memory Area 2
data top address:
Depends on the EUT class* Classes 3, 4, 6 and 7: 0
* Class 5: 1 024
Common memory Area 2
data size:
Depends on the EUT class* Classes 3 and 4: 16* Class 5: 1 024* Classes 6 and 7: To be
calculated from the numberof input points and output
points of the slave of the
EUT
Upper layer status: (noevaluation)
Token watchdog time: (noevaluation)
Allowable minimum frameinterval time:(no evaluation)
Vender code of node
information:
Depends on the EUT
specification (Confirmed bytest executor)
Manufacturer model name:
Depends on the EUT
specification (Confirmed bytest executor)
Node name: “TargetNode”
Protocol type: 128
FA link status: (noevaluation)
Status of the self node: (noevaluation)
Identification of the self nodeclass:The EUT class number

JEM 1480:2023– 414 –

Table 114 – Node Reset
Test number

V3-033

Test large
classification
Test classification

General purpose command server function

Test items

Node reset

Operation test of single setting tool (TCP)

Test procedure

Evaluation criteria

Test
neces
sity
identifi
ed by
the
EUT
class

Start the equipment under test and the test equipment. Then, start the dummy node.
The test equipment (TCP setting tool interface) opens a TCP connection with the EUT.
The test equipment (TCP setting tool interface) transmits a node reset frame (request).
The test equipment closes the TCP connection with the EUT.

Class 1

Confirm that the equipment under test transmits a response frame for the request
frame.
Confirm the contents of the response frame by the following Classes of the equipment
under test:* Class 3, 4, 5: Normal response (M_RLT = 0), not-implemented response (M_RLT =2), or no response* Class 6, 7: Normal response (M_RLT = 0).
In the case of normal response, confirm that the equipment under test is temporarily
disengaged from the network and rejoined to the network within 10 seconds.
N

Class 2

N

Class 3O (when implementing the TCP command server function)

Class 4O (when implementing the TCP command server function)

Class 5O (when implementing the TCP command server function)

Class 6O (when implementing the TCP command server function)

Class 7O (when implementing the TCP command server function)

Setting parameter(node)

Equipment
under test
(EUT)
(Parameters
depending on
Class)Classes 3
and 4Class 5Classes 6
and 7

Node number

1

Token watchdog time

(50)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

4

Area 2 data top address

0

Area 2 data size

16

IO allocation setting (forClass 4)
Node number

Optional

Token watchdog time(100)

Allowable minimum
frame interval time
Area 1 data top address(10)

Area 1 data size

256

Area 2 data top address

1 024

Area 2 data size

1 024

Node number

1

Token watchdog time

(50)

0

100

256

– 415 –JEM 1480:2023

Table 114 – Node Reset (continued)
Setting parameter(node)(continued)

Equipment
under test
(EUT)
(Parameters
depending on
Class)Classes 6
and 7(continued)

Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(Parameters
depending on
Class of theequipment
under test(EUT))Classes 3, 4,
5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address

Area 2 data size
Node number
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)(10)0Calculated from the numberof input points of the slave of
the equipment under test(EUT).
0Calculated from the numberof input and output points ofthe slave of the equipment
under test (EUT).
3 (Controller)
254
50
10
4
4
64
64
4 (Flexible master)
254
50
10
Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 0* 1 point or more: 256
Calculated from the numberof output points of the slaveof the equipment under test(EUT).
1 024
1 024
1

Slave node number:
16#8001(Flexible setting mode, Node
number = 1)
Input data address =16#0000(Area 1, Address = 0)
Input data size = Calculated
from the number of input
points of the slave of theequipment under test (EUT).
Output data address =Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 16#0000(Area 1, Address = 0)
* 1 point or more: 16#0100(Area 1, Address = 256)

JEM 1480:2023– 416 –

Table 114 – Node Reset (continued)
Setting parameter(Node)(continued)

Test
equipment(Parameters
depending on
Class of theequipment
under test(EUT))(continued)

Dummy nodes

Setting parameter(Test data)

Request frame

Response frame

Class 6
(continued)

IO allocation setting(slave setting)(continued)

Class 7

Implementation class

Output data size =Calculated from the numberof output points of the slaveof the equipment under test(EUT).
Input status address =16#8000(Area 2, Address = 0)
Output status address =16#8400(Area 2, Address = 1024)
3 (Controller)

Node number

254

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top address

10

Area 1 data size

4

Area 2 data top address

1 024

Area 2 data size

64

Implementation class

3 (Controller)

Node number

2

Token watchdog time

50

Allowable minimum
frame interval time
Area 1 data top address

10

Area 1 data size

0

Area 2 data top address

0

Area 2 data size

0Interface

TCP setting tool interface

Node address of sourceside (SNA)
Node address ofdestination side (DNA)

254

256

0

TCD

Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6, and 7: 1
* Class 5: 100
65028 (Node reset request)

Data size

0Contents of data

NAInterface

TCP setting tool interface

Node address of source
side
(SNA)

Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6, and 7: 1
* Class 5: 100
254

Node address ofdestination side
(DNA)
TCD

65228 (Node reset response)

– 417 –JEM 1480:2023

Table 114 – Node Reset (continued)
Setting parameter(Test data)(continued)

Response frame (continued)

Response time limit(request frame transmission ~response frame reception)

Type of response
message (M_RLT)

Data size (M_RLT = 0)

Depends on Class of theequipment under test (EUT).
* Classes 3, 4, and 5: 2
(Not-implemented) or 0
(Normal)* Classes 6 and 7: 0
(Normal)0Contents of data

NA

1s

Table 115 – Network Parameter Read
Test number
Test large
classification
Test classification
Test items
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V3-034General purpose command server function
Operation test of single setting tool (TCP)
Network parameter readStart the equipment under test and the test equipment.
Open a TCP connection with the equipment under test from the test equipment (TCP
setting tool interface).
Transmit a network parameter read frame (request) from the test equipment (TCP
setting tool interface).
Close the TCP connection with the equipment under test.
Confirm that the equipment under test transmits a response frame for the request
frame.
Confirm that the response frame is normal response (M_RLT = 0), not-implemented
response (M_RLT = 2), or no response, and in the case of normal response, confirm
that its contents are equivalent to the settings of the equipment under test.
NN
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
Equipment
Class 3 andNode number
1
under test
4
Token watchdog time
(50)
(EUT)
Allowable minimum(10)(Parameters
frame interval timedepending on
Area 1 data top address 0Class)
Area 1 data size
4
Area 2 data top address 0
Area 2 data size
16
Node name“TargetNode”
IO allocation setting (for Optional
Class 4)
Class 5
Node number
100
Token watchdog time(100)

JEM 1480:2023– 418 –

Table 115 – Network Parameter Read (continued)
Setting parameter(Node)(continued)

Equipment
under test
(EUT)
(Parameters
depending on
Class)(Continued)

Class 5
(continued)

Classes 6
and 7

Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node name
Node number
token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(Parameters
depending on
Class of theequipment
under test
(EUT)

Classes 3,4
and 5Class 6

Node name
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

(10)
256
256
1 024
1 024
“TargetNode”
1
(50)
(10)
0
Calculated from the numberof input points of the slave of
the equipment under test(EUT).
0Calculated from the numberof input and output points ofthe slave of the equipment
under test (EUT).
“TargetNode”
3 (Controller)
254
50
10
4
4
64
64
4 (Flexible master)
254
50
10
Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 0* 1 point or more: 256
Calculated from the numberof output points of the slaveof the equipment under test(EUT).
1 024
1 024
1

Slave node number =16#8001(Flexible setting mode, Node
number = 1)
Input data address =16#0000(Area 1, Address = 0)

– 419 –JEM 1480:2023

Table 115 – Network Parameter Read (continued)
Setting parameter(Node)(continued)

Setting parameter(test data)

Test equipment(Parameters
depending on
Class of theequipment under
test (EUT)(Continued)

Request frame

Class 6
(Continued)

IO allocation setting(slave setting)(Continued)

Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD

Response frame

Data size
Contents of data
Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD
Type of response
message (M_RLT)

Input data size = Calculated
from the number of input
points of the slave of theequipment under test (EUT).
Output data address =Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 16#0000(Area 1, Address = 0)
* 1 point or more: 16#0100(Area 1, Address = 256)
Output data size =Calculated from the numberof output points of the slaveof the equipment under test(EUT).
Input status address =16#8000(Area 2, Address = 0)
Output status address =16#8400(Area 2, Address = 1024)
3 (Controller)
254
50
10
256
4
1 024
64
TCP setting tool interface
254
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6, and 7: 1
* Class 5: 100
65007 (Network parameterread request)
0NA
TCP setting tool interface
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6, and 7: 1
* Class 5: 100
25465207 (Network parameterread response)
0 (Normal) or 2 (Notimplemented)

JEM 1480:2023– 420 –

Table 115 – Network Parameter Read (continued)
Setting parameter(Test data)(continued)

Response Frame(Continued)

Response time limit(from request frametransmission to response
frame reception)

Data size(M_RLT = 0)Contents of data
(M_RLT = 0)1s56
Node name = “TargetNode”
Vender code of node
information = Depends on
specification of theequipment under test (EUT)(Confirmed by a tester).
Manufacturer model name ofnode information = Depends
on specification of theequipment under test (EUT)(Confirmed by a tester).
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6, and 7: 0
* Class 5: 256
Area 1 data size = Depends
on Class of the equipment
under test (EUT).
* Classes 3 and 4: 4
* Class 5: 256* Classes 6 and 7:
Calculated from thenumber of input points ofthe slave of the equipment
under test (EUT).
Area 2 data top address =Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6, and 7: 0
* Class 5: 1024
Area 2 data size = Depends
on Class of the equipment
under test (EUT).
* Classes 3 and 4: 16* Class 5: 1024
* Classes 6 and 7:
Calculated from thenumber of input points ofthe slave of the equipment
under test (EUT).
Token watchdog time = (Noevaluation)
Allowable minimum frameinterval time = (Noevaluation)
Link status = (No evaluation)
Protocol type = 128
Upper layer status = (Noevaluation)
Allowable refresh cycle time
= (No evaluation)
Refresh cycle measurement
time (current) = (Noevaluation)
Refresh cycle measurement
time (maximum) = (Noevaluation)
Refresh cycle measurement
time (minimum) = (Noevaluation)

– 421 –JEM 1480:2023

Table 116 – Log Data Read
Test number
Test large
classification
Test classification
Test items
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)

V3-035General purpose command server function
Operation test of single setting tool (TCP)
Log data readStart the equipment under test and the test equipment.
Open a TCP connection with the equipment under test from the test equipment (TCP
setting tool interface).
Transmit a log data read frame (request) from the test equipment (TCP setting toolinterface).
Close the TCP connection with the equipment under test.
Confirm that the equipment under test transmits a response frame for the request
frame.
Confirm that the response frame is normal response (M_RLT = 0), not-implemented
response (M_RLT = 2), or no response, and in the case of normal response, confirm
that the total number of reception at the socket part and the total number oftransmission at the socket part are not zero (0).
N
N
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
Equipment
Classes 3 andNode number
1
under test
4
Token watchdog time
(50)
(EUT)
Allowable minimum(10)(Parameters
frame interval timedepending on
Class)
Area 1 data top address 0
Area 1 data size
4
Area 2 data top address 0
Area 2 data size
16
IO allocation setting (for Optional
Class 4)
Class 5
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time
Area 1 data top address 256
Area 1 data size
256
Area 2 data top address 1 024
Area 2 data size
1 024
Classes 6 andNode number
1
7
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address 0

JEM 1480:2023– 422 –

Table 116 – Log Data Read (continued)
Setting parameter(Node)(continued)

Equipment
under test
(EUT)
(Parameters
depending on
Class)(Continued)

Classes 6
and 7(Continued)

Test
equipment(Parameters
depending on
Class of theequipment
under test)

Classes 3, 4
and 5

Area 1 data size
Area 2 data top address
Area 2 data size

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Calculated from the number of
input points of the slave of theequipment under test (EUT).
0
Calculated from the number of
input and output points of theslave of the equipment under
test (EUT).
3 (Controller)
254
50
10
4
4
64
64
4 (Flexible master)
254
50
10
Calculated from the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 0* 1 point or more: 256
Calculated from the number of
output points of the slave of
the equipment under test(EUT).
1 024
1 024
1
Slave node number = 16#8001(Flexible setting mode, Node
number = 1)
Input data address = 16#0000(Area 1, Address = 0)
Input data size = Calculated
from the number of input pointsof the slave of the equipment
under test (EUT).
Output data address =Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 16#0000(Area 1, Address = 0)
* 1 point or more: 16#0100(Area 1, Address = 256)
Output data size = Calculated
from the number of output
points of the slave of theequipment under test (EUT).
Input status address =16#8000(Area 2, Address = 0)
Output status address =16#8400(Area 2, Address = 1024)

– 423 –JEM 1480:2023

Table 116 – Log Data Read (continued)
Setting parameter(Node)(continued)

Setting parameter(Test data)

Test
equipment(Parameters
dependingon Class oftheequipment
under test)(Continued)

Class 7

Request frame

Response frame

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Contents of data
Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD
Type of response
message (M_RLT)
Data size (M_RLT = 0)Contents of data
(M_RLT = 0)

Response time limit(request frame transmission~ response frame reception)

1s

3 (Controller)
254
50
10
256
4
1 024
64
TCP setting tool interface
254
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6, and 7: 1
* Class 5: 100
65013 (Log data read request)
0NA
TCP setting tool interface
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6, and 7: 1
* Class 5: 100
25465213 (Log data read
response)
0 (Normal) or 2 (Notimplemented)
512
The total number oftransmission at the socket part≠0
The total number of reception
at the socket part ≠ 0

JEM 1480:2023– 424 –

Table 117 – Log Data Clear
Test number
Test large
classification
Test classification
Test items
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)

V3-036
General purpose command server function
Operation test of single setting tool (TCP)
Log data clear
Start the equipment under test and the test equipment.
Open a TCP connection with the equipment under test from the test equipment (TCP
setting tool interface).
Receive a log data clear frame (normal response) and transmit a log data read frame(request) from the test equipment (TCP setting tool interface).
Close the TCP connection with the equipment under test.
Confirm that the equipment under test transmits a response frame for the log data clear
request frame from the test equipment.
Confirm that the response frame is normal response (M_RLT = 0), not-implemented
response (M_RLT = 2), or no response.
Confirm that the equipment under test transmits a response frame for the log data readrequest frame from the test equipment.
Confirm that the response frame is normal response (M_RLT = 0), not-implemented
response (M_RLT = 2), or no response, and in the case of normal response, confirm
that the number of joining is zero (0).
N
N
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
Equipment
Classes 3 andNode number
1
under test
4
Token watchdog time
(50)
(EUT)
Allowable minimum(10)(Parameters
frame interval timedependingArea 1 data top address 0
on Class)
Area 1 data size
4
Area 2 data top address 0
Area 2 data size
16
IO allocation setting (for Optional
Class 4)
Class 5
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time
Area 1 data top address 256
Area 1 data size
256
Area 2 data top address 1 024
Area 2 data size
1 024

– 425 –JEM 1480:2023

Table 117 – Log Data Clear (continued)
Setting parameter(Node)(continued)

Equipment
under test
(EUT)
(Parameters
dependingon Class)(Continued)

Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(Parameters
dependingon Class oftheequipment
under test)

Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

1
(50)
(10)
0
Calculated from the number of
input points of the slave of theequipment under test (EUT).
0
Calculated from the number of
input and output points of theslave of the equipment under
test (EUT).
3 (Controller)
254
50
10
4
4
64
64
4 (Flexible master)
254
50
10
Calculated from the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 0* 1 point or more: 256
Calculated from the number of
output points of the slave of
the equipment under test(EUT).
1 024
1 024
1

Slave node number = 16#8001(Flexible setting mode, Node
number = 1)
Input data address = 16#0000(Area 1, Address = 0)
Input data size = Calculated
from the number of input pointsof the slave of the equipment
under test (EUT).
Output data address =Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 16#0000(Area 1, Address = 0)
* 1 point or more: 16#0100(Area 1, Address = 256)

JEM 1480:2023– 426 –

Table 117 – Log Data Clear (continued)
Setting parameter(Node)(continued)

Setting parameter(test data)

Test
equipment(Parameters
dependingon Class oftheequipment
under test)(Continued)

Log data
clear

Class 6
(Continued)

IO allocation setting(slave setting)(Continued)

Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)

Requestframe

Response
frame

TCD
Data size
Contents of data
Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD

Log data
read

RequestframeType of response
message (M_RLT)
Data size (M_RLT = 0)Contents of data
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)Output data size = Calculated
from the number of output
points of the slave of theequipment under test (EUT).
Input status address =16#8000(Area 2, Address = 0)
Output status address =16#8400(Area 2, Address = 1024)
3 (Controller)
254
50
10
256
4
1 024
64
TCP setting tool interface
254
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65014 (Log data clear request)
0NA
TCP setting tool interface
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
25465214 (Log data clear
response)
0 (Normal) or 2 (Notimplemented)
0NA
TCP setting tool interface
254
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

– 427 –JEM 1480:2023

Table 117 – Log Data Clear (continued)
Setting parameter(Test data)(continued)

Log data
read(Continued)

Requestframe(Continued)
Response
frame

TCD
Data size
Contents of data
Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD

Response time limit(request frame transmission~ response frame reception)

Type of response
message (M_RLT)
Data size (M_RLT = 0)Contents of data
(M_RLT = 0)1s65013 (Log data read request)
0NA
TCP setting tool interface
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
25465213 (Log data read
response)
0 (Normal) or 2 (Notimplemented)
512
Number of joining = 0

Table 118 – Message Echo Back
Test number
Test large
classification
Test classification
Test items
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

V3-037
General purpose command server function
Operation test of single setting tool (TCP)
Message echo backStart the equipment under test and the test equipment.
Open a TCP connection with the equipment under test from the test equipment (TCP
setting tool interface).
Transmit a message echo back frame (request) from the test equipment (TCP setting
tool interface). The contents of data are incremented (+1) by word from 16#11AA.
Close the TCP connection with the equipment under test.
Confirm that the equipment under test transmits a response frame for the request
frame.
Confirm that the response frame is normal response (M_RLT = 0), not-implemented
response (M_RLT = 2), or no response, and in the case of normal response, confirm
that the contents of data is equivalent to the request data.
NN
O (when implementing the TCP command server function))O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)

JEM 1480:2023– 428 –

Table 118 – Message Echo Back (continued)
Setting parameter(Node)

Equipment
under test
(EUT)
(Parameters
dependingon Class)

Classes 3
and 4Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
IO allocation setting (forClass 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(Parameters
dependingon Class oftheequipment
under test)

Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

1
(50)
(10)
0
4
0
16
Optional
100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
Calculated from the number of
input points of the slave of theequipment under test (EUT).
0
Calculated from the number of
input and output points of theslave of the equipment under
test (EUT).
3 (Controller)
254
50
10
4
4
64
64
4 (Flexible master)
254
50
10
Calculated from the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 0* 1 point or more: 256

– 429 –JEM 1480:2023

Table 118 – Message Echo Back (continued)
Setting parameter(Node)(continued)

Test
equipment(Parameters
dependingon Class oftheequipment
under test)(Continued)

Class 6
(Continued)

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Setting parameter(Test data)

Request frame

Area 1 data size

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Contents of data

Calculated from the number of
output points of the slave of
the equipment under test(EUT).
1 024
1 024
1

Slave node number = 16#8001(Flexible setting mode, Node
number = 1)
Input data address = 16#0000(Area 1, Address = 0)
Input data size = Calculated
from the number of input pointsof the slave of the equipment
under test (EUT).
Output data address =Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 16#0000(Area 1, Address = 0)
* 1 point or more: 16#0100(Area 1, Address = 256)
Output data size = Calculated
from the number of output
points of the slave of theequipment under test (EUT).
Input status address =16#8000(Area 2, Address = 0)
Output status address =16#8400(Area 2, Address = 1024)
3 (Controller)
254
50
10
256
4
1 024
64
TCP setting tool interface
254
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65015 (Message echo backrequest)512
Data incremented (+1) by wordfrom 16#11AA

JEM 1480:2023– 430 –

Table 118 – Message Echo Back (continued)
Setting parameter(Test data)(continued)

Response frame

Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD

Response time limit(request frame transmission~ response frame reception)

TCP setting tool interface
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

Type of response
message (M_RLT)

65215 (Message echo backresponse)
0 (Normal) or 2 (Notimplemented)

Data size (M_RLT = 0)512

Contents of data
(M_RLT = 0)

Data incremented (+1) by wordfrom 16#11AA

1s

Table 119 – Byte Block Read, Byte Block Write
Test number
Test large
classification
Test classification
Test items
Test procedure

Evaluation criteria

V3-038General purpose command server function
Operation test of single setting tool (TCP)
Byte block read, byte block write
Start the equipment under test and the test equipment.
Open a TCP connection with the equipment under test from the test equipment (TCP
setting tool interface).
Transmit a byte block write frame (request) from the test equipment (TCP setting toolinterface). The contents of data are incremented (+1) by word from 16#11AA.
Receive a byte block write frame (normal response) from the equipment under test andtransmit a byte block read frame (request) from the test equipment (TCP setting toolinterface).
Close the TCP connection with the equipment under test.
Confirm that the equipment under test transmits a byte block write frame (response) forthe byte block write request frame from the test equipment.
Confirm that the response frame is normal response (M_RLT = 0), not-implemented
response (M_RLT = 2), or no response.
Confirm that the equipment under test transmits a byte block read frame (response) forthe byte block read request frame from the test equipment.
Confirm that the response frame is normal response (M_RLT = 0), not-implemented
response (M_RLT = 2), or no response, and in the case of normal response, confirm
that the contents of data is equivalent to the write data.

– 431 –JEM 1480:2023

Table 119 – Byte Block Read, Byte Block Write (continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)NN
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
Equipment
Classes 3
Node number
1
under test
and 4
Token watchdog time
(50)
(EUT)
Allowable minimum(10)(Parameters
frame interval timedependingArea 1 data top address 0
on Class)
Area 1 data size
4
Area 2 data top address 0
Area 2 data size
16
IO allocation setting (for Optional
Class 4)
Class 5
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time
Area 1 data top address 256
Area 1 data size
256
Area 2 data top address 1 024
Area 2 data size
1 024
Classes 6
Node number
1
and 7
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address 0
Area 1 data size
Calculated from the number of
input points of the slave of theequipment under test (EUT).
Area 2 data top address 0
Area 2 data size
Calculated from the number of
input and output points of theslave of the equipment under
test (EUT).
Test
Classes 3, 4
Implementation class
3 (Controller)
equipment
and 5
Node number
254(Parameters
Token watchdog time50
depending
Allowable
minimum10
on Class offrameintervaltime
theArea 1 data top address 4
equipment
under test)
Area 1 data size
4
Area 2 data top address 64
Area 2 data size
64
Class 6
Implementation class4 (Flexible master)
Node number
254

JEM 1480:2023– 432 –

Table 119 – Byte Block Read, Byte Block Write (continued)
Setting parameter(Node)(continued)

Test
equipment(Parameters
dependingon Class oftheequipment
under test)(Continued)

Class 6
(Continued)

Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Setting parameter(Test data)

Byte block
write

Requestframe

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of sourceside (SNA)50
10Calculated from the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 0* 1 point or more: 256
Calculated from the number of
output points of the slave of
the equipment under test(EUT).
1 024
1 024
1

Slave node number = 16#8001(Flexible setting mode, Node
number = 1)
Input data address = 16#0000(Area 1, Address = 0)
Input data size = Calculated
from the number of input pointsof the slave of the equipment
under test (EUT).
Output data address =Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 16#0000(Area 1, Address = 0)
* 1 point or more: 16#0100(Area 1, Address = 256)
Output data size = Calculated
from the number of output
points of the slave of theequipment under test (EUT).
Input status address =16#8000(Area 2, Address = 0)
Output status address =16#8400(Area 2, Address = 1024)
3 (Controller)
254
50
10
256
4
1 024
64
TCP setting tool interface254

– 433 –JEM 1480:2023

Table 119 – Byte Block Read, Byte Block Write (continued)
Setting parameter(Test data)(continued)

Byte block
write(Continued)

Requestframe(Continued)

Node address ofdestination side (DNA)TCD
Data size
Virtual address space

Size of virtual address
space

Contents of data
Response
frame

Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD
Type of response
message (M_RLT)
Data size (M_RLT = 0)
Virtual address space

Size of virtual address
space

Byte block
read

Requestframe

Contents of data
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Virtual address space

Size of virtual address
space

Contents of data

Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
Class 5: 100
65004 (Byte block write
request)Same as the size of virtual
address space
Depends on the specificationof the equipment under test.
(Input using testing tool
window.)
Depends on the specificationof the equipment under test.
(Input using testing tool
window.)
Data incremented (+1) by wordfrom 16#11AA
TCP setting tool interface
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
25465204 (Byte block write
response)
0 (Normal) or 2 (Notimplemented)
0
Depends on the specificationof the equipment under test.
(Same as the virtual address
space of write request)
Depends on the specificationof the equipment under test.
(Same as the size of virtual
address space of write
request)NA
TCP setting tool interface
254
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65003 (Byte block readrequest)0
Depends on the specificationof the equipment under test.
(Same as the virtual address
space of write request)
Depends on the specificationof the equipment under test.
(Same as the size of virtual
address space of write
request)NAJEM 1480:2023– 434 –

Table 119 – Byte Block Read, Byte Block Write (continued)

Setting parameter(Test data)(continued)

Byte block
read(Continued)

Response
frame(Continued)

Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD
Type of response
message (M_RLT)
Data size (M_RLT = 0)

Virtual address space

Size of virtual address
space

Response time limit(request frame transmission~ response frame reception)

Contents of data
(M_RLT = 0)1s

TCP setting tool interface
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
Class 5: 100
25465203 (Byte block read
response)
0 (Normal) or 2 (Notimplemented)
Depends on the specificationof the equipment under test.
(Same as the size of virtual
address space)
Depends on the specificationof the equipment under test.
(Same as the virtual address
space of read request)
Depends on the specificationof the equipment under test.
(Same as the size of virtual
address space of read request)
Data incremented (+1) by wordfrom 16#11AA

– 435 –JEM 1480:2023

Table 120 – Word Block Read, Word Block Write
Test number
Test large
classification
Test classification
Test items
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)

V3-039General purpose command server function
Operation test of single setting tool (TCP)
Word block read, word block write
Start the equipment under test and the test equipment.
Open a TCP connection with the equipment under test from the test equipment (TCP
setting tool interface).
Transmit a word block write frame (request) from the test equipment (TCP setting toolinterface). The contents of data are incremented (+1) by word from 16#11AA.
Receive a word block write frame (normal response) from the equipment under test
and transmit a word block read frame (request) from the test equipment (TCP setting
tool interface).
Close the TCP connection with the equipment under test.
Confirm that the equipment under test transmits a word block write frame (response)
for the word block write request frame from the test equipment.
Confirm that the response frame is normal response (M_RLT = 0), not-implemented
response (M_RLT = 2), or no response.
Confirm that the equipment under test transmits a word block read frame (response)
for the word block read request frame from the test equipment.
Confirm that the response frame is normal response (M_RLT = 0), not-implemented
response (M_RLT = 2), or no response, and in the case of normal response, confirm
that the contents of data is equivalent to the write data.
NN
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
Equipment
Classes 3
Node number
1
under test
and 4
Token watchdog time
(50)
(EUT)
Allowable minimum(10)(Parameters
frame interval timedependingArea 1 data top address 0
on Class)
Area 1 data size
4
Area 2 data top address 0
Area 2 data size
16
IO allocation setting (for Optional
Class 4)
Class 5
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time
Area 1 data top address 256
Area 1 data size
256
Area 2 data top address 1 024
Area 2 data size
1 024
Classes 6
Node number
1
and 7
Token watchdog time
(50)
Allowable minimum(10)
frame interval time

JEM 1480:2023– 436 –

Table 120 – Word Block Read, Word Block Write (continued)
Setting parameter(Node)(continued)

under test
(EUT)
(Parameters
dependingon Class)(continued)

Classes 6
and 7(continued)

Test
equipment(Parameters
dependingon Class oftheequipment
under test)

Classes 3, 4
and 5

Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)0
Calculated from the number of
input points of the slave of theequipment under test (EUT)0
Calculated from the number of
input and output points of theslave of the equipment under
test (EUT)
3 (Controller)
254
50
10
4
4
64
64
4 (Flexible master)
254
50
10
Calculated from the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 0* 1 point or more: 256
Calculated from the number of
output points of the slave of
the equipment under test(EUT).
1 024
1 024
1

– 437 –JEM 1480:2023

Table 120 – Word Block Read, Word Block Write (continued)
Setting parameter(Node)(continued)

Setting parameter(Test data)

Test
equipment(Parameters
dependingon Class oftheequipment
under test)(continued)

Word block
write

Class 6
(continued)

IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)

Requestframe

TCD
Data size
Virtual address space

Size of virtual address
space

Slave node number = 16#8001(Flexible setting mode, Node
number = 1)
Input data address = 16#0000(Area 1, Address = 0)
Input data size = Calculated
from the number of input pointsof the slave of the equipment
under test (EUT)
Output data address =Depends on the number of
output points of the slave of
the equipment under test(EUT)
* 0 point: 16#0000(Area 1, Address = 0)
* 1 point or more: 16#0100(Area 1, Address = 256)
Output data size = Calculated
from the number of output
points of the slave of theequipment under test (EUT)
Input status address =16#8000(Area 2, Address = 0)
Output status address =16#8400(Area 2, Address = 1024)
3 (Controller)
254
50
10
256
4
1 024
64
TCP setting tool interface
254
Depends on Class of theequipment under test (EUT)* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65006 (word block write
requestThe size of virtual address
space multiplied by 2
Depends on the specificationof the equipment under test.
(Input using testing tool
window.)
Depends on the specificationof the equipment under test.
(Input using testing tool
window.)

JEM 1480:2023– 438 –

Table 120 – Word Block Read, Word Block Write (continued)
Setting parameter(Test data)(continued)

Word block
write(continued)

Requestframe(Continued)
Response
frame

Contents of data

Data incremented (+1) by wordfrom 16#11AA

Interface
Node address of sourceside (SNA)

TCP setting tool interface
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

Node address ofdestination side (DNA)TCD
Type of response
message (M_RLT)
Data size (M_RLT = 0)
Virtual address space

Size of virtual address
space

Word block
read

Requestframe

Contents of data
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Virtual address space

Size of virtual address
space

Requestframe

Contents of data
Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD
Type of response
message (M_RLT)
Data size (M_RLT = 0)

Virtual address space

65206 (word block write
response)
0 (Normal) or 2 (Notimplemented)
0
Depends on the specificationof the equipment under test.
(Same as the virtual address
space of write request)
Depends on the specificationof the equipment under test.
(Same as the size of virtual
address space of read request)
NA
TCP setting tool interface
254
Depends on Class of theequipment under test (EUT)* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65005 (word block readrequest)0
Depends on the specificationof the equipment under test.
(Same as the virtual address
space of write request)
Depends on the specificationof the equipment under test.
(Same as the size of virtual
address space of write
request)NA
TCP setting tool interface
Depends on Class of theequipment under test (EUT)* Classes 3, 4, 6 and 7: 1
* Class 5: 100
25465205 (word block read
response)
0 (Normal) or 2 (Notimplemented)
Depends on the specificationof the equipment under test.
(The size of virtual address
space multiplied by 2)
Depends on the specificationof the equipment under test.
(Same as the virtual address
space of read request)

– 439 –JEM 1480:2023

Table 120 – Word Block Read, Word Block Write (continued)
Setting parameter(Test data)(continued)

Word block
read(Continued)

Requestframe(Continued)

Response time limit(request frame transmission~ response frame reception)

Size of virtual address
space

Contents of data
(M_RLT = 0)1s

Depends on the specificationof the equipment under test.
(Same as the size of the virtual
address space of read request)
Data incremented (+1) by wordfrom 16#11AA

Table 121 – Network Parameter Write
Test number
Test large
classification
Test classification
Test items
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

V3-040General purpose command server function
Operation test of single setting tool (TCP)
Network parameter write
Start the equipment under test and the test equipment. Then, start the dummy node.
Open a TCP connection with the equipment under test from the test equipment (TCP
setting tool interface).
Transmit a network parameter write frame (request) from the test equipment (TCP
setting tool interface).
NOTE: For Classes 3 and 4, disengage from the network and then rejoin the network tochange the address and size. For Classes 5, 6 and 7, change only the node name anddo not disengage from the network.
Close the TCP connection with the equipment under test.
For Classes 5, 6 and 7, transmit a network parameter read message (request) from thetest equipment.
Confirm that the equipment under test transmits a response frame for a request
frame.
Confirm that the response frame is normal response (M_RLT = 0), not-implemented
response (M_RLT = 2), or no response.
In the case of normal response, confirm the following conditions depending on Class:* Classes 3 and 4,: Confirm that the equipment under test is rejoined to the network
within 10 seconds.
* Classes 5， 6 and 7: Confirm that the equipment under test transmits a response
frame for the network parameter read message (request) from the test equipment.
Confirm the following conditions depending on Class:* Classes 3 and 4: Confirm that the contents of participation request header after
rejoining are equivalent to the contents of data (C_AD1, C_SZ1, C_AD2, C_SZ2, nodename) set by the request.
* Classes 5, 6 and 7: Confirm that the contents of the network parameter read message(response) are equivalent to the contents of data (node name) set by the network
parameter write frame (request).
NN
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)

JEM 1480:2023– 440 –

Table 121 – Network Parameter Write (continued)
Setting parameter(Node)

Equipment
under test
(EUT)
(Parameters
dependingon Class)

Classes 3
and 4Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node name
IO allocation setting (forClass 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node name
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(Parameters
dependingon Class oftheequipment
under test)

Classes 3, 4
and 5Class 6

Node name
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time

1
(50)
(10)
0
4
0
16
“TargetNode”
Optional
100
(100)
(10)
256
256
1 024
1 024
“TargetNode”
1
(50)
(10)
0
Calculated from the number of
input points of the slave of theequipment under test (EUT).
0
Calculated from the number of
input and output points of theslave of the equipment under
test (EUT).
“TargetNode”
3 (Controller)
254
50
10
4
4
64
64
4 (Flexible master)254
50

– 441 –JEM 1480:2023

Table 121 – Network Parameter Write (continued)
Setting parameter(Node)(continued)

Test
equipment(Parameters
dependingon Class oftheequipment
under test)(Continued)

Class 6
(Continued)

Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

10
Calculated from the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 0* 1 point or more: 256
Calculated from the number of
output points of the slave of
the equipment under test(EUT).
1 024
1 024
1

Slave node number = 16#8001(Flexible setting mode, Node
number = 1)
Input data address = 16#0000(Area 1, Address = 0)
Input data size = Calculated
from the number of input pointsof the slave of the equipment
under test (EUT).
Output data address =Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 16#0000(Area 1, Address = 0)
* 1 point or more: 16#0100(Area 1, Address = 256)
Output data size = Calculated
from the number of output
points of the slave of theequipment under test (EUT).
Input status address =16#8000(Area 2, Address = 0)
Output status address =16#8400(Area 2, Address = 1024)
3 (Controller)
254
50
10
256
4
1 024
64

JEM 1480:2023– 442 –

Table 121 – Network Parameter Write (continued)
Setting parameter(node)(continued)

Setting parameter(Test data)

Dummy node

Networkparameter
write

Requestframe

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Contents of data

Response
frame

Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD

Response time limit(request frame transmission~ response frame reception)

Type of response
message (M_RLT)
Data size (M_RLT = 0)Contents of data
1s

3 (Controller)
2
50
10
0
0
0
0
TCP setting tool interface
254
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65008 (network parameter
write request)
0
Setting parameter flag =Depends on Class of theequipment under test (EUT).
* Classes 3 and 4: 3
* Classes 5, 6 and 7: 2
Area 1 data top address = 256
Area 1 data size = 128
Area 2 data top address =4096
Area 2 data size = 1024
Node name = “RenewNode1”
TCP setting tool interface
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254
65208 (network parameter
write response)
0 (Normal) or 2 (Notimplemented)
0NA

– 443 –JEM 1480:2023

Table 121 – Network Parameter Write (continued)
Setting parameter(Test data)(continued)

Networkparameter
read

Transmission
message

Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD

Incoming
message

Data size
Contents of data
Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD
Type of response
message (M_RLT)
Data size (M_RLT = 0)Contents of data (M_RLT= 0)

FL-net message
254
Depends on Class of theequipment under test (EUT).
* Classes 6 and 7: 1
* Class 5: 100
65007 (network parameterread request)
0NA
FL-net message
Depends on Class of theequipment under test (EUT)* Classes 6 and 7: 1
* Class 5: 100
25465207 (network parameterread response)
0 (Normal)
56
Node name = “RenewNode1”
Vender code of node
information = (No evaluation)
Manufacturer model name ofnode information = (Noevaluation)
Area 1 data top address =Depends on Class of theequipment under test (EUT).
* Class 5: 256* Classes 6 and 7: 0
Area 1 data size = Depends
on Class of the equipment
under test (EUT).
* Class 5: 256* Classes 6 and 7:
Calculated from thenumber of input points ofthe slave of the equipment
under test (EUT)
Area 2 data top address =Depends on Class of theequipment under test (EUT).
* Class 5: 1024
* Classes 6 and 7: 0
Area 2 data size = Depends
on Class of the equipment
under test (EUT).
* Class 5: 1024
* Classes 6 and 7:
Calculated from thenumber of input and output
points of the slave of theequipment under test(EUT).
Token watchdog time = (Noevaluation)
Allowable minimum frameinterval time = (Noevaluation)
Link status = (No evaluation)

JEM 1480:2023– 444 –

Table 121 – Network Parameter Write (continued)
Setting parameter(Test data)(continued)

Networkparameter
read(Continued)

Incoming
message(Continued)

Contents of data (M_RLT= 0)(Continued)

Protocol type = 128
Upper layer status = (Noevaluation)
Allowable refresh cycle time
= (No evaluation)
Refresh cycle measurement
time (Current) = (Noevaluation)
Refresh cycle measurement
time (Maximum) = (Noevaluation)
Refresh cycle measurement
time (Minimum) = (Noevaluation)

Table 122 – Profile Read
Test number
Test large
classification
Test classification
test items
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)

V3-041
General purpose command server function
Operation test of single setting tool (TCP)
Profile readStart the equipment under test and the test equipment.
Open a TCP connection with the equipment under test from the test equipment (TCP
setting tool interface).
Transmit a profile read frame (request) from the test equipment (TCP setting toolinterface).
Close the TCP connection with the equipment under test.
Confirm that the equipment under test transmits a response frame for a request
frame.
Confirm that the response frame is normal response (M_RLT = 0), not-implemented
response (M_RLT = 2), or no response, and in the case of normal response, confirm
that the contents of data is equivalent to the settings of the equipment under test.
NN
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
Equipment
Classes 3
Node number
1
under test
and 4
Token watchdog time
(50)
(EUT)
Allowable minimum(10)(Parameters
frame interval timedependingArea 1 data top address 0
on Class)
Area 1 data size
4
Area 2 data top address 0
Area 2 data size
16
IO allocation setting (for Optional
Class 4)

– 445 –JEM 1480:2023

Table 122 – Profile Read (continued)
Setting parameter(Node)(continued)

Equipment
under test
(EUT)
(Parameters
dependingon Class)(Continued)

Class 5Classes 6
and 7

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size

Area 2 data top address
Area 2 data size

Testequipment(Parameters
dependingon Class oftheequipment
under test)

Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size

100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
Calculated from the number of
input points of the slave of theequipment under test (EUT).
0
Calculated from the number of
input and output points of theslave of the equipment under
test (EUT).
3 (Controller)
254
50
10
4
4
64
64
4 (Flexible master)
254
50
10
Depends on Class of theequipment under test (EUT).
* 0 point: 0* 1 point or more: 256
Calculated from the number of
output points of the slave of
the equipment under test(EUT).
1 024
1 024

JEM 1480:2023– 446 –

Table 122 – Profile Read (continued)
Setting parameter(Node)(continued)

Setting parameter(Test data)

Test
equipment(Parameters
dependingon Class oftheequipment
under test)(Continued)

Class 6
(Continued)

IO allocation setting(number of control
slaves)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)

Request frame

Response frame

TCD
Data size
Contents of data
Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD

1Slave node number = 16#8001(Flexible setting mode, Node
number = 1)
Input data address = 16#0000(Area 1, Address = 0)
Input data size = Calculated
from the number of input pointsof the slave of the equipment
under test (EUT).
Output data address =Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 16#0000(Area 1, Address = 0)
* 1 point or more: 16#0100(Area 1, Address = 256)
Output data size = Calculated
from the number of output
points of the slave of theequipment under test (EUT).
Input status address =16#8000(Area 2, Address = 0)
Output status address =16#8400(Area 2, Address = 1024)
3 (Controller)
254
50
10
256
4
1 024
64
TCP setting tool interface
254
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65011 (profile read request)
0NA
TCP setting tool interface
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
25465211 (profile read response)

– 447 –JEM 1480:2023

Table 122 – Profile Read (continued)
Setting parameter(Test data)(continued)

Response frame (Continued)

Type of response
message (M_RLT)
Data size (M_RLT = 0)Contents of data
(M_RLT = 0)
Response time limit(request frame transmission~ response frame reception)

0 (Normal) or 2 (Notimplemented)
Depends on the specificationof the equipment under test.
(Confirmed by a tester.)
Depends on the specificationof the equipment under test.
(Confirmed by a tester.)

1s

Table 123 – Operation Command, Stop Command
Test number
Test large
classification
Test classification
Test items
Test procedure

Evaluation criteria

V3-042
General purpose command server function
Operation test of single setting tool (TCP)
Operation command, Stop command
Start the equipment under test and the test equipment.
Open a TCP connection with the equipment under test from the test equipment (TCP
setting tool interface).
Transmit a stop command frame (request) from the test equipment (TCP setting toolinterface).
Transmit an operation command frame (request) from the test equipment (TCP setting
tool interface).
Receive the operation command frame (normal response) from the equipment under
test and transmit the stop command frame (request) from the test equipment (TCP
setting tool interface).
Close the TCP connection with the equipment under test.
Confirm that the equipment under test transmits an operation command frame(response) for an operation command request frame from the test equipment.
Confirm that the response frame is normal response (M_RLT = 0), not-implemented
response (M_RLT = 2), or no response.
In the case of normal response, confirm that the equipment under test is running, i.e., a
ULS (upper layer status) RUN flag is set to 1.
Confirm that the equipment under test transmits a stop command frame (response) fora stop command request frame from the test equipment.

JEM 1480:2023– 448 –

Table 123 – Operation Command, Stop Command (continued)
Evaluation criteria(continued)

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)

Confirm that the response frame is normal response (M_RLT = 0), not-implemented
response (M_RLT = 2), or no response.
In the case of normal response, confirm that the equipment under test is stopped, i.e.,a ULS (upper layer status) RUN flag is set to 0.
NN
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
Equipment
Classes 3
Node number
1
under test
and 4
Token watchdog time
(50)
(EUT)
Allowable minimum(10)(Parameters
frame interval timedependingArea 1 data top address 0
on Class)
Area 1 data size
4
Area 2 data top address 0
Area 2 data size
16
IO allocation setting (for Optional
Class 4)
Class 5
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time
Area 1 data top address 256
Area 1 data size
256
Area 2 data top address 1 024
Area 2 data size
1 024
Classes 6
Node number
1
and 7
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address 0
Area 1 data size
Calculated from the number of
input points of the slave of theequipment under test (EUT).
Area 2 data top address 0
Area 2 data size
Calculated from the number of
input and output points of theslave of the equipment under
test (EUT).
Test
Classes 3, 4
Implementation class
3 (Controller)
equipment
and 5
Node number
254(Parameters
Token watchdog time50
depending
Allowable
minimum10
on Class offrameintervaltime
theArea 1 data top address 4
equipment
under test)

– 449 –JEM 1480:2023

Table 123 – Operation Command, Stop Command (continued)
Setting parameter(Node)(continued)

Test
equipment(Parameters
dependingon Class oftheequipment
under test)(Continued)

Classes 3, 4
and 5(Continued)
Class 6

Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

464
64
4 (Flexible master)
254
50
10
Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 0* 1 point or more: 256
Calculated from the number of
output points of the slave of
the equipment under test(EUT).
1 024
1 024
1

Slave node number = 16#8001(Flexible setting mode, Node
number = 1)
Input data address = 16#0000(Area 1, Address = 0)
Input data size = Calculated
from the number of input pointsof the slave of the equipment
under test (EUT).
Output data address =Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 16#0000(Area 1, Address = 0)
* 1 point or more: 16#0100(Area 1, Address = 256)
Output data size = Calculated
from the number of output
points of the slave of theequipment under test (EUT).
Input status address =16#8000(Area 2, Address = 0)
Output status address =16#8400(Area 2, Address = 1024)
3 (Controller)
254
50
10
256
4
1 024
64

JEM 1480:2023– 450 –

Table 123 – Operation Command, Stop Command (continued)
Setting parameter(Test data)

Operationcommand

Requestframe

Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD

Response
frame

Data size
Contents of data
Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)
TCD

Stop
command

RequestframeType of response
message (M_RLT)
Data size (M_RLT = 0)Contents of data
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD

Response
frame

Data size
Contents of data
Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD

Response time limit(request frame transmission~ response frame reception)

Type of response
message (M_RLT)
Data size (M_RLT = 0)Contents of data
(M_RLT = 0)1s

UDP setting tool interface
254
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65010 (operation command
request)0NA
UDP setting tool interface
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
25465210 (operation command
response)
0 (Normal) or 2 (Notimplemented)
0NA
UDP setting tool interface
254
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65009 (stop command
request)0NA
UDP setting tool interface
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
25465209 (stop command
response)
0 (Normal) or 2 (Notimplemented)
0NA

– 451 –f)

JEM 1480:2023

Operation test of double setting tools (TCP)
Table 124 – IO Allocation Setting (Lock Confirmation), Read

Test number
Test large
classification
Test classification
Test items
Test procedure

Evaluation criteria

V3-043General purpose command server function
Operation test of double setting tools (TCP)IO allocation setting (lock confirmation), readStart the equipment under test and the test equipment.
Open two (2) TCP connections with the equipment under test from the test equipment(TCP setting tool interface).
Transmit the 1st IO allocation setting frame (request, setting number = 1 / number ofcontrol slaves = 2) from the test equipment (1st TCP setting tool interface, hereinafter
called “TCP setting tool A”).
Receive the 1st IO allocation setting frame (response) from the equipment under test
and transmit the 2nd IO allocation setting frame (request, setting number = 1 / numberof control slaves = 3) from the test equipment (2nd TCP setting tool interface,hereinafter called “TCP setting tool B”).
Receive the 2nd IO allocation setting frame (response) from the equipment under test
and transmit the 3rd IO allocation setting frame (request, setting number = 2 / numberof control slaves = 2) from the TCP setting tool A.
Receive the 3rd IO allocation setting frame (response) from the equipment under test
and transmit the 1st IO allocation read frame (request, setting number = 1) from the
TCP setting tool A.
Receive the 1st IO allocation read frame (response) from the equipment under test andtransmit the 2nd IO allocation read frame (request, setting number = 2) from the TCP
setting tool A.
Close the TCP connections with the equipment under test.
Confirm that the equipment under test transmits the 1 st IO allocation setting response
frame for the 1st IO allocation setting request frame from the TCP setting tool A.
Confirm the contents of the 1st IO allocation setting response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT =0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT = 0),
not-implemented response (M_RLT = 2), or no response
NOTE: In the case of normal response, confirm that the contents of data are correct.
Confirm that the equipment under test transmits the 2 nd IO allocation setting response
frame for the 2nd IO allocation setting request frame from the TCP setting tool B.
Confirm the contents of the 2nd IO allocation setting response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Error response (M_RLT = 1)
* Class 3 (flexible master function not-implemented): Error response (M_RLT = 1), notimplemented response (M_RLT = 2), or no response
NOTE: In the case of error response, confirm that the result of the response data = error(16#02) and the information = locked by exclusive control (16#04).
Confirm that the equipment under test transmits the 3 rd IO allocation response frame
for the 3rd IO allocation setting request frame from the TCP setting tool A.

JEM 1480:2023– 452 –

Table 124 – IO Allocation Setting (Lock Confirmation), Read (continued)
Evaluation criteria(continued)

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)

Confirm the contents of the 3rd IO allocation setting response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT =0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT = 0),
not-implemented response (M_RLT = 2), or no response
NOTE: In the case of normal response, confirm that the contents of data are correct.
Confirm that the equipment under test transmits the 1 st IO allocation read response
frame for the 1st IO allocation read request frame from the TCP setting tool A.
Confirm the contents of the 1st IO allocation read response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT =0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT = 0),
not-implemented response (M_RLT = 2), or no response
NOTE: In the case of normal response, confirm that the contents of data are equivalent
to the settings made by the TCP setting tool A.
Confirm that the equipment under test transmits the 2 nd IO allocation read response
frame for the 2nd IO allocation read request frame from the TCP setting tool A.
Confirm the contents of the 2nd IO allocation read response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT =0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT = 0),
not-implemented response (M_RLT = 2), or no response
NOTE: In the case of normal response, confirm that the contents of data are equivalent
to the settings made by the TCP setting tool A.
Confirm that the equipment under test transmits the solicitation frame according to thesettings made by the TCP setting tool A.
NN
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
N
N
N
Equipment
Classes 3
Node number
1
under
and 4
Token watchdog time(50)
test(EUT)
Allowable minimum(10)
frame interval time
Area 1 data top address 256
Area 1 data size
16
Area 2 data top address 1 024
Area 2 data size
64
IO allocation setting (for Optional
Class 4)

– 453 –JEM 1480:2023

Table 124 – IO Allocation Setting (Lock Confirmation), Read (continued)
Setting parameter(Node)(continued)

Setting parameter(Test data)

Test
equipment

1st IO
allocation
setting

Classes 3
and 4

Requestframe

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Contents of data

Response
frame

Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Type of response
message (M_RLT)

3 (Controller)
254
50
10
4
4
64
64
TCP setting tool A
254
165018 (IO allocation setting
request)24
Setting number = 1
Number of control slaves(total) = 2
Lock ID = 0
Lock timeout setting value =4
Slave node number =16#800C(Flexible setting mode, Node
number = 12)
Input data address =16#0080(Area 1, Address = 128)
Input data size = 4
Output data address =16#0100(Area 1, Address = 256)
Input data size = 8
Input status address =16#8200(Area 2, Address = 512)
Output status address =16#8400(Area 2, Address = 1024)
TCP setting tool A
1254
65218 (IO allocation setting
response)
Depends on Class of theequipment under test (EUT).
* Class 3 (flexible masterfunction not-implemented):
0 (Normal) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 0 (Normal)

JEM 1480:2023– 454 –

Table 124 – IO Allocation Setting (Lock Confirmation), Read (continued)
Setting parameter(Test data)(continued)

1st IO
allocation
setting(Continued)

Response
frame(Continued)

Data size (M_RLT = 0)Contents of data
(M_RLT = 0)

2nd IO
allocation
setting

Requestframe

Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Contents of data

Response
frame

Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Type of response
message (M_RLT)

Data size (M_RLT = 0)Contents of data
(M_RLT = 0)

8
Result = 1 (continue)
Information = (No evaluation)
Lock ID = other than 0
TCP setting tool B
253
165018 (IO allocation setting
request)24
Setting number = 1
Number of control slaves(total) = 3
Lock ID = 0
Lock timeout setting value =6
Slave node number =16#8032(Flexible setting mode, Node
number = 50)
Input data address =16#00A0(Area 1, Address = 160)
Input data size = 4
Output data address =16#010C(Area 1, Address = 268)
Output data size = 4
Input status address =16#8258(Area 2, Address = 600)
Output status address =16#8430(Area 2, Address = 1072)
TCP setting tool B
125365218 (IO allocation setting
response)
Depends on Class of theequipment under test (EUT).
* Class 3 (flexible masterfunction not-implemented):
1 (Error) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 1 (Error)
8
Result = 2 (error)
Information = 4 (locked by
exclusive control)
Lock ID = (No evaluation)

– 455 –JEM 1480:2023

Table 124 – IO Allocation Setting (Lock Confirmation), Read (continued)
Setting parameter(Test data)(continued)

3rd IO
allocation
setting

Requestframe

Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Contents of data

Response
frame

Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Type of response
message (M_RLT)

Data size (M_RLT = 0)Contents of data
(M_RLT = 0)

TCP setting tool A
254
165018 (IO allocation setting
request)24
Setting number = 2
Number of control slaves(total) = 2
Lock ID = Same as that of
the 1st IO allocation setting
response frame
Lock timeout setting value =4
Slave node number =16#8064(Flexible setting mode, Node
number = 100)
Input data address =16#008C(Area 1, Address = 140)
Input data size = 6
Output data address =16#0108(Area 1, Address = 264)
Output data size = 8
Input status address =16#8220(Area 2, Address = 544)
Output status address =16#8420(Area 2, Address = 1056)
TCP setting tool A
1254
65218 (IO allocation setting
response)
Depends on Class of theequipment under test (EUT).
* Class 3 (flexible masterfunction not-implemented):
0 (Normal) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 0 (Normal)
8
Result = 0 (Normal)
Information = (No evaluation)
Lock ID = Same as that of
the 1st IO allocation setting
response frame

JEM 1480:2023– 456 –

Table 124 – IO Allocation Setting (Lock Confirmation), Read (continued)
Setting parameter(Test data)(continued)

1st IO
allocation read

Requestframe

Response
frame

Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Contents of data
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Type of response
message (M_RLT)

Data size (M_RLT = 0)Contents of data
(M_RLT = 0)

2nd IO
allocation read

Requestframe

Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Contents of data

TCP setting tool A
254
165019 (IO allocation readrequest)4
Setting number = 1
TCP setting tool A
1254
65219 (IO allocation read
response)
Depends on Class of theequipment under test (EUT).
* Class 3 (flexible masterfunction not-implemented):
0 (Normal), 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 0 (Normal)
20
Setting number = 1
Number of control slaves(total) = 2
Slave node number =16#800C(Flexible setting mode, Node
number = 12)
Input data address =16#0080(Area 1, Address = 128)
Input data size = 4
Output data address =16#0100(Area 1, Address = 256)
Output data size = 8
Input status address =16#8200(Area 2, Address = 512)
Output status address =16#8400(Area 2, Address = 1024)
TCP setting tool A
254
165019 (IO allocation readrequest)4
Setting number = 2

– 457 –JEM 1480:2023

Table 124 – IO Allocation Setting (Lock Confirmation), Read (continued)
Setting parameter(Test data)(continued)

2nd IO
allocation
read(Continued)

Response
frame

Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Type of response
message (M_RLT)

Data size (M_RLT = 0)Contents of data
(M_RLT = 0)

Solicitation frame

Node address of sourceside (SNA)TCD
Data size
Contents of data (1stnode)

TCP setting tool A
1254
65219 (IO allocation read
response)
Depends on Class of theequipment under test (EUT).
* Class 3 (flexible masterfunction not-implemented): 0(Normal) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and 4:
0 (Normal)
20
Setting number = 2
Number of control slaves(total) = 2
Slave node number = 16#8064(Flexible setting mode, Node
number = 100)
Input data address = 16#008C(Area 1, Address = 140)
Input data size = 6
Output data address =16#0108(Area 1, Address = 264)
Output data size = 8
Input status address =16#8220(Area 2, Address = 544)
Output status address =16#8420(Area 2, Address = 1056)
165017 (solicitation)
32
Slave node number =16#800C(Flexible setting mode, Node
number = 12)
Input data address = 16#0080(Area 1, Address = 128)
Input data size = 4
Output data address =16#0100(Area 1, Address = 256)
Output data size = 8
Input status address =16#8200(Area 2, Address = 512)
Output status address =16#8400(Area 2, Address = 1024)
Lock ID = 1

JEM 1480:2023– 458 –

Table 124 – IO Allocation Setting (Lock Confirmation), Read (continued)
Setting parameter(Test data)(continued)

Solicitation frame (continued)

Contents of data (2ndnode)

Response time limit(request frame transmission~ response frame reception)

1s

Slave node number = 16#8064(Flexible setting mode, Node
number = 100)
Input data address = 16#008C(Area 1, Address = 140)
Input data size = 6
Output data address =16#0108(Area 1, Address = 264)
Output data size = 8
Input status address =16#8220(Area 2, Address = 544)
Output status address =16#8420(Area 2, Address = 1056)
Lock ID = 1

Table 125 – IO Allocation Setting (Lock Timeout), Read
Test number
Test large
classification
Test classification
Test items
Test procedure

V3-044General purpose command server function
Operation test of double setting tools (TCP)IO allocation setting (lock timeout), readStart the equipment under test and the test equipment.
Open two (2) TCP connections with the equipment under test from the test equipment(TCP setting tool interface).
Transmit the 1st IO allocation setting frame (request, setting number = 1 / number ofcontrol slaves = 2) from the test equipment (1st TCP setting tool interface, hereinafter
called “TCP setting tool A”).
Receive the 1st IO allocation setting frame (response) from the equipment under test
and transmit the 2nd IO allocation setting frame (request, setting number = 1 / numberof control slaves = 3) from the test equipment (2nd TCP setting tool interface,hereinafter called “TCP setting tool B”).
When the lock timeout period has elapsed after sending the 1 st IO allocation frame,transmit the 3rd IO allocation setting frame (request, setting number = 2 / number ofcontrol slaves = 2) from the TCP setting tool A.
Receive the 3rd IO allocation setting frame (response) from the equipment under test
and transmit the 4th IO allocation setting frame (request, setting number = 1 / numberof control slaves = 1) from the TCP setting tool B.
Receive the 4th IO allocation setting frame (response) from the equipment under test
and transmit the IO allocation read frame (request, setting number = 1) from the TCP
setting tool B.
Close the TCP connections with the equipment under test.

– 459 –JEM 1480:2023

Table 125 – IO Allocation Setting (Lock Timeout), Read (continued)
Evaluation criteria

Confirm that the equipment under test transmits the 1 st IO allocation setting response
frame for the 1st IO allocation setting request frame from the TCP setting tool A.
Confirm the contents of the 1st IO allocation setting response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT =0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT = 0),
not-implemented response (M_RLT = 2), or no response
NOTE: In the case of normal response, confirm that the contents of data are correct.
Confirm that the equipment under test transmits the 2 nd IO allocation setting response
frame for the 2nd IO allocation setting request frame from the TCP setting tool B.
Confirm the contents of the 2nd IO allocation setting response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Error response (M_RLT = 1)
* Class 3 (flexible master function not-implemented): Error response (M_RLT = 1), notimplemented response (M_RLT = 2), or no response
NOTE: In the case of error response, confirm that the result of the response data = error(16#02) and the information = locked by exclusive control (16#04).
Confirm that the equipment under test transmits the 3 rd IO allocation response frame
for the 3rd IO allocation setting request frame from the TCP setting tool A.
Confirm the contents of the 3rd IO allocation setting response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Error response (M_RLT = 1)
* Class 3 (flexible master function not-implemented): Error response (M_RLT = 1), notimplemented response (M_RLT = 2), or no response

JEM 1480:2023– 460 –

Table 125 – IO Allocation Setting (Lock Timeout), Read (continued)
Evaluation criteria(continued)

test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)

NOTE: In the case of error response, confirm that the result of the response data = error(16#02) and the information = exclusive lock timeout (16#05).
Confirm that the equipment under test transmits the 4 th IO allocation setting response
frame for the 4th IO allocation setting request frame from the TCP setting tool B.
Confirm the contents of the 4th IO allocation setting response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT =0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT = 0),
not-implemented response (M_RLT = 2), or no response
NOTE: In the case of normal response, confirm that the contents of data are correct.
Confirm that the equipment under test transmits the IO allocation read response frame
for the IO allocation read request frame from the TCP setting tool B.
Confirm the contents of the IO allocation read response frame by the following Classesof the equipment under test:* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT =0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT = 0),
not-implemented response (M_RLT = 2), or no response
NOTE: In the case of normal response, confirm that the contents of data are equivalent
to the settings made by the TCP setting tool B.
Confirm that the equipment under test transmits the solicitation frame according to thesettings made by the TCP setting tool B.
NN
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
N
N
N
Equipment
Classes 3 andNode number
1
under test
4
Token watchdog time
(50)
(EUT)
Allowable minimum(10)
frame interval time
Area 1 data top
256
address
Area 1 data size
16
Area 2 data top
1 024
address
Area 2 data size
64
IO allocation setting
Optional(for Class 4)
Test
Classes 3 andImplementation class
3 (Controller)
equipment
4
Node number
254
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top
4
address
Area 1 data size
4
Area 2 data top
64
address
Area 2 data size64

– 461 –JEM 1480:2023

Table 125 – IO Allocation Setting (Lock Timeout), Read (continued)
Setting parameter(Test data)

1st IO
allocation
setting

Request frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Response
frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)

Data size (M_RLT =0)
Contents of data
(M_RLT = 0)

TCP setting tool A
254
165018 (IO allocation setting
request)24
Setting number = 1
Number of control slaves(total) = 2
Lock ID = 0
Lock timeout setting value =4
Slave node number =16#800C(Flexible setting mode, Node
number = 12)
Input data address =16#0080(Area 1, Address = 128)
Input data size = 4
Output data address =16#0100(Area 1, Address = 256)
Input data size = 8
Input status address =16#8200(Area 2, Address = 512)
Output status address =16#8400(Area 2, Address = 1024)
TCP setting tool A
1254

65218 (IO allocation setting
response)
Depends on Class of theequipment under test (EUT)* Class 3 (flexible masterfunction not-implemented):
0 (Normal) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 0 (Normal)
8
Result = 1 (continue)
Information = (No evaluation)
Lock ID = other than 0

JEM 1480:2023– 462 –

Table 125 – IO Allocation Setting (Lock Timeout), Read (continued)
Setting parameter(Test data)(continued)

2nd IO
allocation
setting

Request frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side(DNA)

TCP setting tool B
253

TCD

65018 (IO allocation setting
request)24
Setting number = 1
Number of control slaves(total) = 3
Lock ID = 0
Lock timeout setting value =6
Slave node number =16#8032(Flexible setting mode, Node
number = 50)
Input data address =16#00A0(Area 1, Address = 160)
Input data size = 4
Output data address =16#010C(Area 1, Address = 268)
Output data size = 4
Input status address =16#8258(Area 2, Address = 600)
Output status address =16#8430(Area 2, Address = 1072)
TCP setting tool B
1Data size
Contents of data

Response
frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)

Data size (M_RLT =1)Contents of data
(M_RLT = 1)125365218 (IO allocation setting
response)
Depends on Class of theequipment under test (EUT)* Class 3 (flexible masterfunction not-implemented):
1 (Error) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 1 (Error)
8
Result = 2 (error)
Information = 4 (locked by
exclusive control)
Lock ID = (No evaluation)

– 463 –JEM 1480:2023

Table 125 – IO Allocation Setting (Lock Timeout), Read (continued)
Setting parameter(Test data)(continued)

3rd IO
allocation
setting

Request frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Response
frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)

Data size (M_RLT =1)Contents of data
(M_RLT = 1)

TCP setting tool A
254
165018 (IO allocation setting
request)24
Setting number = 2
Number of control slaves(total) = 2
Lock ID = Same as that of
the 1st IO allocation setting
response frame
Lock timeout setting value =4
Slave node number =16#8064(Flexible setting mode, Node
number = 100)
Input data address =16#008C(Area 1, Address = 140)
Input data size = 6
Output data address =16#0108(Area 1, Address = 264)
Input data size = 8
Input status address =16#8220(Area 2, Address = 544)
Output status address =16#8420(Area 2, Address = 1056)
TCP setting tool A
1254

65218 (IO allocation setting
response)
Depends on Class of theequipment under test (EUT)* Class 3 (flexible masterfunction not-implemented):
1 (Error) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 1 (Error)
8
Result = 2 (error)
Information = 5 (exclusive
lock timeout)
Lock ID = (No evaluation)

JEM 1480:2023– 464 –

Table 125 – IO Allocation Setting (Lock Timeout), Read (continued)
Setting parameter(Test data)(continued)

4th IO
allocation
setting

Request frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Response
frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)

Data size (M_RLT =0)
Contents of data
(M_RLT = 0)

TCP setting tool B
253
165018 (IO allocation setting
request)24
Setting number = 1
Number of control slaves(total) = 1
Lock ID = 0
Lock timeout setting value =6
Slave node number =16#8064(Flexible setting mode, Node
number = 100)
Input data address =16#008C(Area 1, Address = 140)
Input data size = 6
Output data address =16#0104(Area 1, Address = 260)
Output data size = 12
Input status address =16#8210(Area 2, Address = 528)
Output status address =16#8410(Area 2, Address = 1040)
TCP setting tool B
125365218 (IO allocation setting
response)
Depends on Class of theequipment under test (EUT)* Class 3 (flexible masterfunction not-implemented):
0 (Normal) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 0 (Normal)
8
Result = 0 (normal)
Information = (No evaluation)
Lock ID = other than 0

– 465 –JEM 1480:2023

Table 125 – IO Allocation Setting (Lock Timeout), Read (continued)
Setting parameter(Test data)(continued)

IO allocation
read

Request frame

Response
frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side(DNA)

TCP setting tool B
253

TCD

65019 (IO allocation readrequest)4
Setting number = 1
TCP setting tool B
1Data size
Contents of data
Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)

Data size (M_RLT =0)
Contents of data
(M_RLT = 0)125365219 (IO allocation read
response)
Depends on Class of theequipment under test (EUT)* Class 3 (flexible masterfunction not-implemented):
0 (Normal) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and
4: 0 (Normal)
20
Setting number = 1
Number of control slaves(total) = 1
Slave node number =16#8064(Flexible setting mode, Node
number = 100)
Input data address =16#008C(Area 1, Address = 140)
Input data size = 6
Output data address =16#0104(Area 1, Address = 260)
Output data size = 12
Input status address =16#8210(Area 2, Address = 528)
Output status address =16#8410(Area 2, Address = 1040)

JEM 1480:2023– 466 –

Table 125 – IO Allocation Setting (Lock Timeout), Read (continued)
Setting parameter(Test data)(continued)

Solicitation frame

Response time limit(request frame transmission ~response frame reception)

Node address ofsource side (SNA)TCD
Data size
Contents of data

1
65017 (Solicitation)
16
Slave node number =16#8064(Flexible setting mode, Node
number = 100)
Input data address =16#008C(Area 1, Address = 140)
Input data size = 6
Output data address =16#0104(Area 1, Address = 260)
Output data size = 12
Input status address =16#8210(Area 2, Address = 528)
Output status address =16#8410(Area 2, Address = 1040)
Lock ID: 1

1s

Table 126 – IO Allocation Setting (Unlock), Read
Test number
Test large
classification
Test classification
Test items
Test procedure

V3-045General purpose command server function
Operation test of double setting tools (TCP)IO allocation setting (unlock), readStart the equipment under test and the test equipment.
Open two (2) TCP connections with the equipment under test from the test equipment(TCP setting tool interface).
Transmit the 1st IO allocation setting frame (request, setting number = 1 / number ofcontrol slaves = 2) from the test equipment (1st TCP setting tool interface, hereinafter
called “TCP setting tool A”).
Receive the 1st IO allocation setting frame (response) from the equipment under test
and transmit the 2nd IO allocation setting frame (request, unlock) from the TCP setting
tool A.
Receive the 2nd IO allocation setting frame (response) from the equipment under test
and transmit the 3rd IO allocation setting frame (request, setting number = 1 / numberof control slaves = 1) from the test equipment (2nd TCP setting tool interface,hereinafter called “TCP setting tool B”).

– 467 –JEM 1480:2023

Table 126 – IO Allocation Setting (Unlock), Read (continued)
Test procedure(continued)

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

Receive the 3rd IO allocation setting frame (response) from the equipment under test
and transmit the IO allocation read frame (request, setting number = 1) from the TCP
setting tool B.
Close the TCP connections with the equipment under test.
Confirm that the equipment under test transmits the 1 st IO allocation setting response
frame for the 1st IO allocation setting request frame from the TCP setting tool A.
Confirm the contents of the 1st IO allocation setting response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT =0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT = 0),
not-implemented response (M_RLT = 2), or no response
NOTE: In the case of normal response, confirm that the contents of data are correct.
Confirm that the equipment under test transmits the 2 nd IO allocation setting response
frame for the 2nd IO allocation setting request frame from the TCP setting tool A.
Confirm the contents of the 2nd IO allocation setting response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT =0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT = 0),
not-implemented response (M_RLT = 2), or no response
NOTE: In the case of normal response, confirm that the contents of data are correct.
Confirm that the equipment under test transmits the 3 rd IO allocation setting response
frame for the 3rd IO allocation setting request frame from the TCP setting tool A.
Confirm the contents of the 3rd IO allocation setting response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT =0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT = 0),
not-implemented response (M_RLT = 2), or no response
NOTE: In the case of normal response, confirm that the contents of data are correct.
Confirm that the equipment under test transmits the IO allocation read response frame
for the IO allocation read request frame from the TCP setting tool B.
Confirm the contents of the IO allocation read response frame by the following Classesof the equipment under test:* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT =0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT = 0),
not-implemented response (M_RLT = 2), or no response
NOTE: In the case of normal response, confirm that the contents of data are equivalent
to the settings made by the TCP setting tool B.
Confirm that the equipment under test transmits the solicitation frame according to thesettings made by the TCP setting tool B.
NN
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
N
N
N

JEM 1480:2023– 468 –

Table 126 – IO Allocation Setting (Unlock), Read (continued)
Setting parameter(Node)

Equipment
under test
(EUT)

Test
equipment

Setting parameter(Test data)

1st IO
allocation
setting

Classes 3 and4Classes 3 and4Request frame

Node number
Token watchdog
time
Allowable
minimum frameinterval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation
setting (for Class
4)
Implementation
class
Node number
Token watchdog
time
Allowable
minimum frameinterval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

1
(50)
(10)

256
16
1 024
64
Optional

3 (Controller)
254
50
10

4
4
64
64
TCP setting tool A
254
165018 (IO allocation setting
request)24
Setting number = 1
Number of control slaves (total)=2
Lock ID = 0
Lock timeout setting value = 4
Slave node number = 16#800C(Flexible setting mode, Node
number = 12)
Input data address = 16#0080(Area 1, Address = 128)
Input data size = 4
Output data address = 16#0100(Area 1, Address = 256)
Input data size = 8
Input status address = 16#8200(Area 2, Address = 512)
Output status address =16#8400(Area 2, Address = 1024)

– 469 –JEM 1480:2023

Table 126 – IO Allocation Setting (Unlock), Read (continued)
Setting parameter(Test data)(continued)

1st IO
allocation
setting(Continued)

Request frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)

Data size (M_RLT= 0)Contents of data
(M_RLT = 0)
2nd IO
allocation
setting

Request frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Response
frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD

TCP setting tool A
1254

65218 (IO allocation setting
response)
Depends on Class of theequipment under test (EUT)* Class 3 (flexible masterfunction not-implemented): 0(Normal) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and 4:
0 (Normal)
8
Result = 1 (continue)
Information = (No evaluation)
Lock ID = other than 0
TCP setting tool A
254
165018 (IO allocation setting
request)24
Setting number = 16#FFFF
Number of control slaves (total)= 16#FFFF
Lock ID = Same as that of the 1st
IO allocation setting response
frame
Lock timeout setting value = 4
Slave node number = 0
Input data address = 0
Input data size = 0
Output data address = 0
Output data size = 0
Input status address = 0
Output status address = 0
TCP setting tool A
1254

65218 (IO allocation setting
response)

JEM 1480:2023– 470 –

Table 126 – IO Allocation Setting (Unlock), Read (continued)
Setting parameter(Test data)(continued)

2nd IO
allocation
setting(Continued)

Response
frame(continued)

Type of response
message (M_RLT)

Data size (M_RLT =0)
Contents of data
(M_RLT = 0)
3rd IO
allocation
setting

Request frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Response
frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)

Depends on Class of theequipment under test (EUT)* Class 3 (flexible masterfunction not-implemented): 0(Normal) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and 4:
0 (Normal)
8
Result = 0 (normal)
Information = (No evaluation)
Lock ID = (No evaluation)
TCP setting tool B
253
165018 (IO allocation setting
request)24
Setting number = 1
Number of control slaves (total)=1
Lock ID = 0
Lock timeout setting value = 2
Slave node number = 16#8032(Flexible setting mode, Node
number = 50)
Input data address = 16#00A0(Area 1, Address = 160)
Input data size = 4
Output data address = 16#0108(Area 1, Address = 264)
Output data size = 4
Input status address = 16#8258(Area 2, Address = 600)
Output status address =16#8420(Area 2, Address = 1056)
TCP setting tool B
125365218 (IO allocation setting
response)
Depends on Class of theequipment under test (EUT)* Class 3 (flexible masterfunction not-implemented): 0(Normal), 2 (Not-implemented)* Classes 3 (flexible masterfunction implemented) and 4:
0 (Normal)

– 471 –JEM 1480:2023

Table 126 – IO Allocation Setting (Unlock), Read (continued)
Setting parameter(Test data)(continued)

3rd IO
allocation
setting(Continued)

Response
frame(continued)

Data size (M_RLT =0)
Contents of data
(M_RLT = 0)

IO allocation
read

Request frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD

Response
frame

Data size
Contents of data
Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)

Data size (M_RLT =0)
Contents of data
(M_RLT = 0)

Solicitation frame

Node address ofsource side (SNA)TCD
Data size

8
Result = 0 (normal)
Information = (No evaluation)
Lock ID = other than 0
TCP setting tool B
253
165019 (IO allocation readrequest)4
Setting number = 1
TCP setting tool B
1
25365219 (IO allocation read
response)
Depends on Class of theequipment under test (EUT)* Class 3 (flexible masterfunction not-implemented): 0(Normal) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and 4:
0 (Normal)
20
Setting number = 1
Number of control slaves (total)=1
Slave node number = 16#8032(Flexible setting mode, Node
number = 50)
Input data address = 16#00A0(Area 1, Address = 160)
Input data size = 4
put data address = 16#0108(Area 1, Address = 264)
Output data size = 4
Input status address = 16#8258(Area 2, Address = 600)
Output status address =16#8420(Area 2, Address = 1056)
165017 (Solicitation)
16

JEM 1480:2023– 472 –

Table 126 – IO Allocation Setting (Unlock), Read (continued)
Setting parameter(Test data)(continued)

Solicitation frame (continued)

Contents of data

Response time limit(request frame transmission ~response frame reception)

1s

Slave node number = 16#8032(Flexible setting mode, Node
number = 50)
Input data address = 16#00A0(Area 1, Address = 160)
Input data size = 4
put data address = 16#0108(Area 1, Address = 264)
Output data size = 4
Input status address = 16#8258(Area 2, Address = 600)
Output status address =16#8420(Area 2, Address = 1056)
Lock ID = 1

– 473 –JEM 1480:2023

Table 127 – Token Retention Time Measurement Start/End
Test number
Test large
classification
Test classification
Test items
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

Setting parameter(node)

V3-046
General purpose command server function
Operation test of double setting tools (TCP)
Token retention time measurement start/end
Start the equipment under test and the test equipment. Then, start the dummy node.
Open two (2) TCP connections with the equipment under test from the test equipment(TCP setting tool interface).
Transmit the 1st token retention time measurement start request frame from the test
equipment (1st TCP setting tool interface, hereinafter called “TCP setting tool A”).
Disengage the test equipment from the network. (Stop sending the token frame.)Rejoin the test equipment to the network.
After 10 seconds from rejoining to the network, transmit the 2 nd token retention timemeasurement start request frame from the other test equipment (2 nd TCP setting toolinterface, hereinafter called “TCP setting tool B”).
After 60 seconds from receiving the 2nd token retention time measurement start
response frame from the equipment under test, transmit the 1st token retention timemeasurement end request frame from the TCP setting tool A.
Receive the 1st token retention time measurement end response frame from theequipment under test and transmit the 2nd token retention time measurement end
request frame from the TCP setting tool B.
Close the TCP connections with the equipment under test.
Confirm that the equipment under test transmits the 1 st token retention timemeasurement start response frame for the 1st token retention time measurement start
request frame from the TCP setting tool A.
Confirm that the 1st token retention time measurement start response frame is normal
response (M_RLT = 0).
Confirm that the equipment under test transmits the 2 nd token retention timemeasurement start response frame for the 2nd token retention time measurement start
request frame from the TCP setting tool B.
Confirm that the 2nd token retention time measurement start response frame is normal
response (M_RLT = 0).
Confirm that the equipment under test transmits the 1 st token retention timemeasurement end response frame for the 1 st token retention time measurement end
request frame from the TCP setting tool A.
Confirm that the 1st token retention time measurement end response frame is normal
response (M_RLT = 0) and its contents are as follows:* Number of tokens during measuring the token retention time ≠ 0
Confirm that the equipment under test transmits the 2 nd token retention timemeasurement end response frame for the 2 nd token retention time measurement end
request frame from the TCP setting tool B.
Confirm that the 2nd token retention time measurement end response frame is normal
response (M_RLT = 0) and its contents are equivalent to the 2 nd end response data.
NN
O (when implementing the TCP command server function)
O (when implementing the TCP command server function and command server load
measurement function)
O (when implementing the TCP command server function and command server load
measurement function)
O (when implementing the TCP command server function and command server load
measurement function)
O (when implementing the TCP command server function and command server load
measurement function)
Equipment
Classes 3 andNode number
1
under test
4
Token watchdog time
(50)
(EUT)
Allowable minimum(10)(Parameters
frame interval timedepending on
Class)JEM 1480:2023– 474 –

Table 127 – Token Retention Time Measurement Start/End (continued)
Setting parameter(Node)(continued)

Equipment
under test
(EUT)
(Parameters
depending on
Class)(Continued)

Classes 3
and 4Class 5Classes 6
and 7

Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for Class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(Parameters
depending on
Class of theequipment
under test(EUT))Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size

0
4
0
16
Optional
100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
Calculated from the number of
input points of the slave of theequipment under test (EUT).
0
Calculated from the number of
input and output points of theslave of the equipment under
test (EUT).
3 (Controller)
254
50
10
4
4
64
64
4 (Flexible master)
254
50
10
Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 0* 1 point or more: 256
Calculated from the number of
output points of the slave of
the equipment under test(EUT).
1 024
1 024

– 475 –JEM 1480:2023

Table 127 – Token Retention Time Measurement Start/End (continued)
Setting parameter(Node)(continued)

Test
equipment(Parameters
depending on
Class of theequipment
under test(EUT))(continued)

Class 6
(continued)

Class 7

Dummy node

Setting parameter(Test data)

1st token
retention timemeasurement
start

Requestframe

IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)

1

Slave node number = 16#8001(Flexible setting mode, Node
number = 1)
Input data address = 16#0000(Area 1, Address = 0)
Input data size = Calculated
from the number of input pointsof the slave of the equipment
under test (EUT).
Output data address =Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 16#0000(Area 1, Address = 0)
* 1 point or more: 16#0100(Area 1, Address = 256)
Output data size = Calculated
from the number of output
points of the slave of theequipment under test (EUT).
Input status address =16#8000(Area 2, Address = 0)
Output status address =16#8400(Area 2, Address = 1024)
3 (Controller)
254
50
10
256
4
1 024
64
3 (Controller)
2
50
10
0
0
0
0
TCP setting tool A
254
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100

JEM 1480:2023– 476 –

Table 127 – Token Retention Time Measurement Start/End (continued)
Setting parameter(Test data)(continued)

1st token
retention timemeasurement
start(continued)

Requestframe(continued)
Response
frame

TCD
Data size
Contents of data
Interface
Node address ofsource side (SNA)

Node address ofdestination side
(DNA)
TCD

2nd token
retention timemeasurement
start(continued)

RequestframeType of response
message (M_RLT)
Data size (M_RLT =0)
Contents of data
Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD

Response
frame

Data size
Contents of data
Interface
Node address ofsource side (SNA)

Node address ofdestination side
(DNA)
TCD

1st token
retention timemeasurement
end

RequestframeType of response
message (M_RLT)
Data size (M_RLT =0)
Contents of data
Interface
Node address ofsource side (SNA)

65020 (token retention timemeasurement start request)
0NA
TCP setting tool A
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
25465220 (token retention timemeasurement start response)
0 (normal)
0NA
TCP setting tool B
253
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65020 (token retention timemeasurement start request)
0NA
TCP setting tool B
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 10025365220 (token retention timemeasurement start response)
0 (normal)
0NA
TCP setting tool A254

– 477 –JEM 1480:2023

Table 127 – Token Retention Time Measurement Start/End (continued)
Setting parameter(Test data)(continued)

1st token
retention timemeasurement
end(continued)

Requestframe(continued)

Node address ofdestination side
(DNA)
TCD

Response
frame

Data size
Contents of data
Interface
Node address ofsource side (SNA)

Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)
Data size (M_RLT =0)
Contents of data
(M_RLT = 0)
2nd token
retention timemeasurement
end

Requestframe

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD

Response
frame

Data size
Contents of data
Interface
Node address ofsource side (SNA)

Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)
Data size (M_RLT =0)

Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65021 (token retention timemeasurement end request)
0NA
TCP setting tool A
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
25465221 (token retention timemeasurement end response)
0 (normal)
76
Number of tokens during
measuring the token retention
time ≠ 0
TCP setting tool B
253
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65021 (token retention timemeasurement end request)
0NA
TCP setting tool B
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
25365221 (token retention timemeasurement end response)
0 (normal)
76

JEM 1480:2023– 478 –

Table 127 – Token Retention Time Measurement Start/End (continued)
Setting parameter(Test data)(continued)

2nd token
retention timemeasurement
end(continued)

Response
frame(continued)

Response time limit(request frame transmission ~response frame reception)

Contents of data
(M_RLT = 0)

Token retention measurement
time = (Same as the 1st end
response time)
Number of tokens during
measuring the token retention
time = (Same as that of the 1st
end response)

1s

Table 128 – General Purpose Communication Data Sender Log Measurement Start/End
Test number
Test large
classification
Test classification
Test items
Test procedure

V3-047
General purpose command server function
Operation test of double setting tools (TCP)
General purpose communication data sender log measurement start/end
Start the equipment under test and the test equipment.
Open two (2) TCP connections with the equipment under test from the test equipment(TCP setting tool interface).
Transmit the 1st general purpose communication data sender log measurement start
request frame from the test equipment (1st TCP setting tool interface, hereinafter called“TCP setting tool A”).
After 10 seconds from receiving the 1st general purpose communication data sender log
measurement start response frame from the equipment under test, transmit the 1 st
general purpose communication data from the TCP setting tool A.
Transmit the 2nd general purpose communication data sender log measurement start
request frame from the other test equipment (2 nd TCP setting tool interface, hereinafter
called “TCP setting tool B”).
Receive the 2nd general purpose communication data sender log measurement start
response frame from the equipment under test, and transmit the 2 nd general purpose
communication data from the TCP setting tool B.
After 60 seconds from receiving the 2nd general purpose communication data sender log
measurement start response frame from the equipment under test, transmit the 1 st
general purpose communication data sender log measurement end request frame fromthe TCP setting tool A.
Receive the 2nd general purpose communication data sender log measurement end
response frame from the equipment under test, and transmit the 2 nd general purpose
communication data sender log measurement end request frame from the TCP setting
tool B.
Close the TCP connections with the equipment under test.

– 479 –JEM 1480:2023

Table 128 – General Purpose Communication Data Sender Log Measurement Start/End(continued)
Evaluation criteria

Confirm that equipment under test transmits the 1 st general purpose communication data
sender log measurement start response frame for the 1 st general purpose
communication data sender log measurement start request frame from the TCP setting
tool A.
Confirm that the 1st general purpose communication data sender log measurement start
response frame is normal response (M_RLT = 0).
Confirm that the equipment under test transmits the 2 nd general purpose communication
data sender log measurement start response frame for the 2 nd general purpose
communication data sender log measurement start request frame from the TCP setting
tool B.
Confirm that the 2nd general purpose communication data sender log measurement start
response frame is normal response (M_RLT = 0).
Confirm that the equipment under test transmits the 1 st general purpose communication
data sender log measurement end response frame for the 1 st general purpose
communication data sender log measurement end request frame from the TCP setting
tool A.
Confirm that the 1st general purpose communication data sender log measurement end
response frame is normal response (M_RLT = 0).
Confirm that the equipment under test transmits the 2 nd general purpose communication
data sender log measurement end response frame for the 2 nd general purpose
communication data sender log measurement end request frame from the TCP setting
tool B.
Confirm that the 2nd general purpose communication data sender log measurement end
response frame is normal response (M_RLT = 0) and its contents are equivalent to the
1st end response data.

JEM 1480:2023– 480 –

Table 128 – General Purpose Communication Data Sender Log Measurement Start/End(continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

Setting parameter(Node)NN
O (when implementing the TCP command server function)
O (when implementing the TCP command server function and command server load
measurement function)
O (when implementing the TCP command server function and command server load
measurement function)
O (when implementing the TCP command server function and command server load
measurement function)
O (when implementing the TCP command server function and command server load
measurement function)
Equipment
Classes 3 andNode number
1
under test
4
Token watchdog time
(50)
(EUT)
Allowable minimum(10)(Parameters
frame interval timedepending on
Area 1 data top
0Class)
address
Area 1 data size
4
Area 2 data top
0
address
Area 2 data size
16
IO allocation setting
Optional(for Class 4)Class 5
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time
Area 1 data top
256
address
Area 1 data size
256
Area 2 data top
1 024
address
Area 2 data size
1 024
Classes 6 andNode number
1
7
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top
0
address
Area 1 data size
Calculated from the numberof input points of the slave of
the equipment under test(EUT).
Area 2 data top
0
address
Area 2 data size
Calculated from the numberof input and output points ofthe slave of the equipment
under test (EUT).
Test
Classes 3, 4
Implementation class
3 (Controller)
equipment
and 5
Node number
254(Parameters
Token watchdog time50
depending on
Allowable minimum
10Class of theframe interval timeequipment
Area 1 data top
4
under test
address(EUT))
Area 1 data size
4
Area 2 data top
64
address
Area 2 data size
64
Class 6
Implementation class4 (Flexible master)
Node number254

– 481 –JEM 1480:2023

Table 128 – General Purpose Communication Data Sender Log Measurement Start/End(continued)
Setting parameter(Node)(continued)

Test
equipment(Parameters
dependingon Class oftheequipment
under test(EUT))(Continued)

Class 6
(Continued)

Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

Area 1 data size

Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

50
10
Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 0* 1 point or more: 256
Calculated from the number of
output points of the slave of
the equipment under test(EUT).
1 024
1 024
1

Slave node number = 16#8001(Flexible setting mode, Node
number = 1)
Input data address = 16#0000(Area 1, Address = 0)
Input data size = Calculated
from the number of input pointsof the slave of the equipment
under test (EUT).
Output data address =Depends on the number of
output points of the slave of
the equipment under test(EUT).
* 0 point: 16#0000(Area 1, Address = 0)
* 1 point or more: 16#0100(Area 1, Address = 256)
Output data size = Calculated
from the number of output
points of the slave of theequipment under test (EUT).
Input status address =16#8000(Area 2, Address = 0)
Output status address =16#8400(Area 2, Address = 1024)
3 (Controller)
254
50
10
256
4
1 024
64

JEM 1480:2023– 482 –

Table 128 – General Purpose Communication Data Sender Log Measurement Start/End(continued)
Setting parameter(Test data)

1st general
purposecommunicati
on datasender log
measurement start

Requestframe

Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD

Response
frame

Data size
Contents of data
Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD

1st general
purposecommunicati
on data

Pattern 1

Pattern 2

2nd general
purposecommunicati
on datasender log
measurement start

RequestframeType of response
message (M_RLT)
Data size (M_RLT = 0)Contents of data
Interface
Source IP address
Destination IP address

Source port number
Destination port number
Data
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number
Destination port number
Data
Number oftransmissions
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD

Data size
Contents of data

TCP setting tool A
254
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65022 (general purpose
communication data sender
log measurement start
request)0
NA
TCP setting tool A
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254
65222 (general purpose
communication data sender
log measurement start
response)
0 (normal)
0NA
TCP
192.168.250.254
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7:
192.168.250.1* Class 5: 192.168.250.100
55 00355 000
Optional
1
UDP
1.2.3.4
1.2.3.255
10 000
10 001
Optional
2
TCP setting tool B
253
Parameters depending on
Class of the equipment under
test (EUT):* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65022 (general purpose
communication data sender
log measurement start
request)0NA– 483 –JEM 1480:2023

Table 128 – General Purpose Communication Data Sender Log Measurement Start/End(continued)
Setting parameter(Test data)(continued)

2nd general
purposecommunicati
on datasender log
measurement start(continued)

2nd general
purposecommunicati
on data

Response
frame

Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD

Pattern N(N = 1 to 6)

Type of response
message (M_RLT)
Data size (M_RLT = 0)Contents of data
Interface
Source IP address
Destination IP address

Source port number
Destination port number

Pattern 7

Pattern 8

Pattern 9

Data
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number
Destination port number
Data
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number
Destination port number
Data
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number

TCP setting tool B
Parameters depending on
Class of the equipment under
test (EUT):* Classes 3, 4, 6 and 7: 1
* Class 5: 10025365222 (general purpose
communication data sender
log measurement start
response)
0 (normal)
0NA
TCP
192.168.250.(248＋N)
Depends on Class of theequipment under test (EUT)* Classes 3, 4, 6 and 7:
192.168.250.1* Class 5: 192.168.250.100
54 998＋N
54 998＋N
Optional
N
UDP
1.2.3.4
1.2.3.255
10 000
10 001
Optional
10
UDP
192.168.0.254
192.168.0.255
55 00155 000
Optional
9
UDP
192.168.250.125
192.168.250.255
55 002JEM 1480:2023– 484 –

Table 128 – General Purpose Communication Data Sender Log Measurement Start/End(continued)
Setting parameter(Test data)(continued)

2nd general
purposecommunicati
on data(continued)

Pattern 9(continued)

Pattern 10

Pattern 11

1st general
purposecommunicati
on datasender log
measurement end

Requestframe

Destination port number
Data
Number oftransmissions
Interface
Source IP address
Destination IP address
Source port number
Destination port number
Data
Number oftransmissions
Interface
Source IP address
Destination IP address

Source port number
Destination port number
Data
Number oftransmissions
Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD

Response
frame

Data size
Contents of data
Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD

Type of response
message (M_RLT)

55 001
Optional
8
UDP
123.45.6.78
123.45.6.255
55 00055 003
Optional
7
TCP
192.168.250.200
Depends on Class of theequipment under test (EUT).
* Classes 3, 4, 6 and 7:
192.168.250.1* Class 5: 192.168.250.100
55 00355 000
Optional
6
TCP setting tool A
254
Parameters depending on
Class of the equipment under
test (EUT):* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65023 (general purpose
communication data sender
log measurement end request)
0NA
TCP setting tool A
Parameters depending on
Class of the equipment under
test (EUT):* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254
65223 (general purpose
communication data sender
log measurement end
response)
0 (normal)

– 485 –JEM 1480:2023

Table 128 – General Purpose Communication Data Sender Log Measurement Start/End(continued)
Setting parameter(Test data)(continued)

1st general
purposecommunicati
on datasender log
measurement end(continued)
2nd general
purposecommunicati
on datasender log
measurement end

Response
frame(Continued)

Data size (M_RLT = 0)Contents of data
(M_RLT = 0)84
Optional (No evaluation)

Requestframe

Interface
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCP setting tool B
253

TCD

Response
frame

Data size
Contents of data
Interface
Node address of sourceside (SNA)

Node address ofdestination side (DNA)TCD

Type of response
message (M_RLT)
Data size (M_RLT = 0)Contents of data
(M_RLT = 0)

Parameters depending on
Class of the equipment under
test (EUT):* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65023 (general purpose
communication data sender
log measurement end request)
0NA
TCP setting tool B
Parameters depending on
Class of the equipment under
test (EUT).
* Classes 3, 4, 6 and 7: 1
* Class 5: 10025365223 (general purpose
communication data sender
log measurement end
response)
0 (normal)
84
General purpose
communication data sender
log measurement time: Sameas that of the 1st end response
IP1: Same as that of the 1st
end response
IP1 receiving counter: Sameas that of the 1st end response
IP2: Same as that of the 1st
end response
IP2 receiving counter: Sameas that of the 1st end response
IP3: Same as that of the 1st
end response
IP3 receiving counter: Sameas that of the 1st end response
IP4: Same as that of the 1st
end response
IP4 receiving counter: Sameas that of the 1st end response
IP5: Same as that of the 1st
end response

JEM 1480:2023– 486 –

Table 128 – General Purpose Communication Data Sender Log Measurement Start/End(continued)
Setting parameter(Test data)(continued)

2nd general
purposecommunicati
on datasender log
measurement end(continued)

Response
frame(continued)

Response time limit(request frame transmission~ response frame reception)g)

Operation test of double setting tools

Contents of data
(M_RLT = 0)
(Continued)

IP5 receiving counter: Sameas that of the 1st end response
IP6: Same as that of the 1st
end response
IP6 receiving counter: Sameas that of the 1st end response
IP7: Same as that of the 1st
end response
IP7 receiving counter: Sameas that of the 1st end response
IP8: Same as that of the 1st
end response
IP8 receiving counter: Sameas that of the 1st end response
IP9: Same as that of the 1st
end response
IP9 receiving counter: Sameas that of the 1st end response
IP10: Same as that of the 1st
end response
IP10 receiving counter: Sameas that of the 1st end response

1s(coexisting UDP and TCP)

Table 129 – IO Allocation Setting (Lock Confirmation), Read
Test number
Test large
classification
Test classification
Test items
Test procedure

V3-048General purpose command server function
Operation test of double setting tools (coexisting UDP and TCP)
IO allocation setting (lock confirmation), readStart the equipment under test and the test equipment.
Open the TCP connection with the equipment under test from the test equipment (TCP
setting tool interface).
Transmit the 1st IO allocation setting frame (request, setting number = 1 / number ofcontrol slaves = 2) from the test equipment (UDP setting tool interface).
Receive the 1st IO allocation setting frame (response) from the equipment under test
and transmit the 2nd IO allocation setting frame (request, setting number = 1 / numberof control slaves = 3) from the TCP setting tool interface.
Receive the 2nd IO allocation setting frame (response) from the equipment under test
and transmit the 3rd IO allocation setting frame (request, setting number = 2 / numberof control slaves = 2) from the UDP setting tool interface.
Receive the 3rd IO allocation setting frame (response) from the equipment under test
and transmit the 1st IO allocation read frame (request, setting number = 1) from the
UDP setting tool interface.
Receive the 1st IO allocation read frame (response) from the equipment under test andtransmit the 2nd IO allocation read frame (request, setting number = 2) from the UDP
setting tool interface.
Close the TCP connection with the equipment under test.

– 487 –JEM 1480:2023

Table 129 – IO Allocation Setting (Lock Confirmation), Read (continued)
Evaluation criteria

Confirm that the equipment under test transmits the 1 st IO allocation setting response
frame for the 1st IO allocation setting request frame from the UDP setting tool interface.
Confirm the contents of the 1st IO allocation setting response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT =0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT = 0),
not-implemented response (M_RLT = 2), or no response
NOTE: In the case of normal response, confirm that the contents of data are correct.
Confirm that the equipment under test transmits the 2 nd IO allocation setting response
frame for the 2nd IO allocation setting request frame from the TCP setting tool interface.
Confirm the contents of the 2nd IO allocation setting response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Error response (M_RLT = 1)
* Class 3 (flexible master function not-implemented): Error response (M_RLT = 1), notimplemented response (M_RLT = 2), or no response
NOTE: In the case of error response, confirm that the result of the response data = error(16#02) and the information = locked by exclusive control (16#04).
Confirm that the equipment under test transmits the 3 rd IO allocation setting response
frame for the 3rd IO allocation setting request frame from the UDP setting tool interface.
Confirm the contents of the 3rd IO allocation setting response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT =0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT = 0),
not-implemented response (M_RLT = 2), or no response
NOTE: In the case of normal response, confirm that the contents of data are correct.
Confirm that the equipment under test transmits the 1 st IO allocation read response
frame for the 1st IO allocation read request frame from the UDP setting tool interface.
Confirm the contents of the 1st IO allocation read response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT =0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT = 0),
not-implemented response (M_RLT = 2), or no response
NOTE: In the case of normal response, confirm that the contents of data are equivalent
to the settings made by the UDP setting tool interface.
Confirm that the equipment under test transmits the 2 nd IO allocation read response
frame for the 2nd IO allocation read request frame from the UDP setting tool interface.
Confirm the contents of the 2nd IO allocation read response frame by the following
Classes of the equipment under test:* Classes 3 (flexible master function implemented) and 4: Normal response (M_RLT =0)* Class 3 (flexible master function not-implemented): Normal response (M_RLT = 0),
not-implemented response (M_RLT = 2), or no response
NOTE: In the case of normal response, confirm that the contents of data are equivalent
to the settings made by the UDP setting tool interface.
Confirm that the equipment under test transmits the solicitation frame according to thesettings made by the UDP setting tool interface.

JEM 1480:2023– 488 –

Table 129 – IO Allocation Setting (Lock Confirmation), Read (continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)

Setting parameter(Test data)NN
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
N
N
N
Equipment
Classes 3 andNode number
1
under test
4
Token watchdog
(50)
(EUT)
time
Allowable(10)
minimum frameinterval time
Area 1 data top
256
address
Area 1 data size
16
Area 2 data top
1 024
address
Area 2 data size
64
IO allocation
Optional
setting (for Class
4)
Test
Classes 3 andImplementation
3 (Controller)
equipment
4
class
Node number
254
Token watchdog
50
time
Allowable
10
minimum frameinterval time
Area 1 data top
4
address
Area 1 data size
4
Area 2 data top
64
address
Area 2 data size64
1st IO
Request frame Interface
UDP setting tool interface
allocation
Node address of254
settingsource side (SNA)
Node address of1
destination side
(DNA)
TCD
65018 (IO allocation setting
request)Data size
24
Contents of data
Setting number = 1
Number of control slaves (total)=2
Lock ID = 0
Lock timeout setting value = 4
Slave node number = 16#800C(Flexible setting mode, Node
number = 12)
Input data address = 16#0080(Area 1, Address = 128)

– 489 –JEM 1480:2023

Table 129 – IO Allocation Setting (Lock Confirmation), Read (continued)
Setting parameter(Test data)(continued)

1st IO
allocation
setting(Continued)

Request frame(continued)

Contents of data
(Continued)

Response
frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)

Data size (M_RLT= 0)Contents of data
(M_RLT = 0)
2nd IO
allocation
setting

Request frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Input data size = 4
Output data address = 16#0100(Area 1, Address = 256)
Output data size = 8
Input status address = 16#8200(Area 2, Address = 512)
Output status address =16#8400(Area 2, Address = 1024)
UDP setting tool interface
1
254

65218 (IO allocation setting
response)
Depends on Class of theequipment under test (EUT).
* Class 3 (flexible masterfunction not-implemented): 0(Normal) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and 4:
0 (Normal)
8
Result = 1 (continue)
Information = (No evaluation)
Lock ID = other than 0
TCP setting tool interface
253
1

65018 (IO allocation setting
request)24
Setting number = 1
Number of control slaves (total)=3
Lock ID = 0
Lock timeout setting value = 6
Slave node number = 16#8032(Flexible setting mode, Node
number = 50)
Input data address = 16#00A0(Area 1, Address = 160)
Input data size = 4
Output data address = 16#010C(Area 1, Address = 268)
Output data size = 4

JEM 1480:2023– 490 –

Table 129 – IO Allocation Setting (Lock Confirmation), Read (continued)
Setting parameter(Test data)(continued)

2nd IO
allocation
setting(Continued)

Request frame(continued)

Contents of data
(Continued)

Response
frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)

Data size (M_RLT= 0)Contents of data
(M_RLT = 0)

3rd IO
allocation
setting

Request frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Input status address = 16#8258(Area 2, Address = 600)
Output status address =16#8430(Area 2, Address = 1072)
TCP setting tool interface
1
253

65218 (IO allocation setting
response)
Depends on Class of theequipment under test (EUT).
* Class 3 (flexible masterfunction not-implemented): 1(Error) or 2 (Not-implemented)* Classes 3 (flexible masterfunction implemented) and 4:
1 (Error)
8
Result = 2 (error)
Information = 4 (locked by
exclusive control)
Lock ID = (No evaluation)
UDP setting tool interface
254
1

65018 (IO allocation setting
request)24
Setting number = 2
Number of control slaves (total)=2
Lock ID = Same as that of the 1st
allocation setting response
frame
Lock timeout setting value = 4
Slave node number = 16#8064(Flexible setting mode, Node
number = 100)
Input data address = 16#008C(Area 1, Address = 140)
Input data size = 6
Output data address = 16#0108(Area 1, Address = 264)
Input data size = 8
Input status address = 16#8220(Area 2, Address = 544)
Output status address =16#8420(Area 2, Address = 1056)

– 491 –JEM 1480:2023

Table 129 – IO Allocation Setting (Lock Confirmation), Read (continued)
Setting parameter(Test data)(continued)

3rd IO
allocation
setting(Continued)

Response
frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)

Data size (M_RLT= 0)Contents of data
(M_RLT = 0)

1st IO
allocation read

Request frame

Response
frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)

Data size (M_RLT= 0)Contents of data
(M_RLT = 0)

UDP setting tool interface
1
254

65218 (IO allocation setting
response)
Depends on Class of theequipment under test (EUT).
* Class 3 (flexible masterfunction not-implemented): 0(Normal) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and 4:
0 (Normal)
8
Result = 0 (normal)
Information = (No evaluation)
Lock ID = Same as that of the 1st
IO allocation setting responseframe
UDP setting tool interface
254
165019 (IO allocation readrequest)4
Setting number = 1
UDP setting tool interface
1
254

65219 (IO allocation read
response)
Depends on Class of theequipment under test (EUT).
* Class 3 (flexible masterfunction not-implemented): 0(Normal) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and 4:
0 (Normal)
20
Setting number = 1
Number of control slaves (total)=2
Slave node number = 16#800C(Flexible setting mode, Node
number = 12)

JEM 1480:2023– 492 –

Table 129 – IO Allocation Setting (Lock Confirmation), Read (continued)
Setting parameter(Test data)(continued)

1st IO
allocation read(Continued)

Response
frame(Continued)

Contents of data
(M_RLT = 0)
(Continued)

2nd IO
allocation read

Request frame

Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD

Response
frame

Data size
Contents of data
Interface
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)

Data size (M_RLT= 0)Contents of data
(M_RLT = 0)

Input data address = 16#0080(Area 1, Address = 128)
Input data size = 4
Output data address = 16#0100(Area 1, Address = 256)
Input data size = 8
Input status address = 16#8200(Area 2, Address = 512)
Output status address =16#8400(Area 2, Address = 1024)
UDP setting tool interface
254
165019 (IO allocation readrequest)4
Setting number = 2
UDP setting tool interface
1
254

65219 (IO allocation read
response)
Depends on Class of theequipment under test (EUT).
* Class 3 (flexible masterfunction not-implemented): 0(Normal) or 2 (Notimplemented)* Classes 3 (flexible masterfunction implemented) and 4:
0 (Normal)
20
Setting number = 2
Number of control slaves (total)=2
Slave node number = 16#8064(Flexible setting mode, Node
number = 100)
Input data address = 16#008C(Area 1, Address = 140)
Input data size = 6
Output data address = 16#0108(Area 1, Address = 264)
Input data size = 8

– 493 –JEM 1480:2023

Table 129 – IO Allocation Setting (Lock Confirmation), Read (continued)
Setting parameter(Test data)(continued)

2nd IO
allocation read(Continued)

Response
frame(Continued)

Solicitation frame

Contents of data
(M_RLT = 0)
(Continued)

Node address ofsource side (SNA)TCD
Data size
Contents of data
(1st node)Contents of data
(2nd node)

Response time limit(request frame transmission ~response frame reception)

1s

Input status address = 16#8220(Area 2, Address = 544)
Output status address =16#8420(Area 2, Address = 1056)
165017 (solicitation)
32
Slave node number = 16#800C(Flexible setting mode, Node
number = 12)
Input data address = 16#0080(Area 1, Address = 128)
Input data size = 4
Output data address = 16#0100(Area 1, Address = 256)
Input data size = 8
Input status address = 16#8200(Area 2, Address = 512)
Output status address =16#8400(Area 2, Address = 1024)
Lock ID = 1
Slave node number = 16#8064(Flexible setting mode, Node
number = 100)
Input data address = 16#008C(Area 1, Address = 140)
Input data size = 6
Output data address = 16#0108(Area 1, Address = 264)
Input data size = 8
Input status address = 16#8220(Area 2, Address = 544)
Output status address =16#8420(Area 2, Address = 1056)
Lock ID = 1

JEM 1480:2023– 494 –

Table 130 – IO allocation setting (lock timeout)/read
Test number
Major test group
Test group
Test object
Test procedure

Evaluation criteria

V3-049General purpose command server function
Operation test of double setting tools (coexisting UDP and TCP)
IO allocation setting(lock timeout)/readStart the EUT, and start the test equipment.
Open the TCP connection from the test equipment (setting tool interface) to the EUT.
Transmit IO allocation setting frame (first time) (request, setting number = 1 / numberof control slaves = 2) from the test equipment (UDP setting tool interface).
After receive IO allocation setting frame (first time) (response) from the EUT, transmit
IO allocation setting frame (second time) (request, setting number = 1 / number ofcontrol slaves = 3) from the test equipment (TCP setting tool interface).
Transmit IO allocation setting frame (third time) (request, setting number = 2 / numberof control slaves = 2) from the test equipment (TCP setting tool interface) after lock
timed out by transmit IO allocation setting frame (first time) from the test equipment(UDP setting tool interface).
After receive IO allocation setting frame (third time) (response) from the EUT, transmit
IO allocation setting frame (fourth time) (request, setting number = 1 / number ofcontrol slaves = 1) from the test equipment (TCP setting tool interface).
After receive IO allocation setting frame (fourth time) (response) from the EUT, transmit
IO allocation read frame (request, setting number = 1) from the test equipment (TCP
setting tool interface).
Close the TCP connection with the EUT.
Confirm that the EUT transmit the IO allocation setting response frame (first time) in
response to IO allocation setting request frame (first time) from the test equipment(UDP setting tool interface).
Confirm the contents of IO allocation setting response frame (first time) (Criteria aredifferent depending on the class of the EUT).
* Classes 3 (flexible master function implemented) and 4 : confirm normal response(M_RLT = 0).
* Class 3 (flexible master function not-implemented) : confirm normal response (M_RLT =0), not-implemented response (M_RLT = 2) or no response.
NOTE: In the case of normal response, confirm that the contents of the data are correct.
Confirm that the EUT transmit the IO allocation setting response frame (second time) in
response to IO allocation setting request frame (second time) from the test equipment(TCP setting tool interface).

– 495 –JEM 1480:2023

Table 130 – IO allocation setting (lock timeout)/read (continued)
valuation criteria(continued)

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameters(node)

Confirm the contents of IO allocation setting response frame (second time) (Criteria aredifferent depending on the class of the EUT).
* Classes 3 (flexible master function implemented) and 4 : confirm abnormal response(M_RLT = 1).
* Class 3 (flexible master function not-implemented) : confirm abnormal response(M_RLT = 1), not-implemented response (M_RLT = 2) or no response.
NOTE: In the case of abnormal response, confirm that the result of response data isabnormal (16#02) and the information is locked by exclusive control (16#04).
Confirm that the EUT transmit the IO allocation setting response frame (third time) in
response to IO allocation setting request frame (third time) from the test equipment(UDP setting tool interface).
Confirm the contents of IO allocation setting response frame (third time) (Criteria aredifferent depending on the class of the EUT).
* Classes 3 (flexible master function implemented) and 4 : confirm abnormal response(M_RLT = 1).
* Class 3 (flexible master function not-implemented) : confirm abnormal response(M_RLT = 1), not-implemented response (M_RLT = 2) or no response.
NOTE: In the case of abnormal response, confirm that the result of response data isabnormal (16#02) and the information is exclusive lock timed out (16#05).
Confirm that the EUT transmit the IO allocation setting response frame (fourth time) in
response to IO allocation setting request frame (fourth time) from the test equipment(TCP setting tool interface).
Confirm the contents of IO allocation setting response frame (fourth time) (Criteria aredifferent depending on the class of the EUT).
* Classes 3 (flexible master function implemented) and 4 : confirm normal response(M_RLT = 0).
* Class 3 (flexible master function not-implemented) : confirm normal response (M_RLT =0 ), not-implemented response (M_RLT = 2) or no response.
NOTE: In the case of normal response, confirm that the contents of the data are correct.
Confirm that the EUT transmit the IO allocation read frame (response) in response to
IO allocation read request frame from the test equipment (TCP setting tool interface).
Confirm the contents of IO allocation read frame (response) (Criteria are different
depending on the class of the EUT).
* Classes 3 (flexible master function implemented) and 4 : confirm normal response(M_RLT = 0).
* Class 3 (flexible master function not-implemented) : confirm normal response (M_RLT =0 ), not-implemented response (M_RLT = 2) or no response.
NOTE: In the case of normal response, confirm that the data content is equal to thesettings from the TCP setting tool interface.
Confirm that the EUT transmit a solicitation frame that based on the settings from TCP
setting tool interface.
NN
O (when implement the TCP command server function)
O (when implement the TCP command server function)
N
N
N
EUT
Classes 3 andNode number
1
4
Token watchdog time
(50)
Allowable minimum(10)
frame interval time

JEM 1480:2023– 496 –

Table 130 – IO allocation setting (lock timeout)/read (continued)
Setting parameters(node)(continued)

EUT(continued)

Test
equipment

Setting parameters(test data)

IO allocation
setting(first time)

Classes 3 and
4(continued)

Classes 3 and4Request frame

Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

256
16
1 024
64
optional
3 (controller)
254
50
10
4
4
64
64
UDP setting tool interface
254

1

65 018 (IO allocation setting
request)24
Setting number = 1
Number of control slaves(total) = 2
Lock ID = 0
Lock timeout setting value =4
Slave node number =16#800C(flexible setting mode, node
number = 12)
Input data address =16#0080(area 1, address = 128)
Input data size = 4
Output data address =16#0100(area 1, address = 256)
Output data size = 8
Input status address =16#8200(area 2, address = 512)
Output status address =16#8400(area 2, address = 1 024)

– 497 –JEM 1480:2023

Table 130 – IO allocation setting (lock timeout)/read (continued)
Setting parameters(test data)(continued)

IO allocation
setting(first time)(continued)

Response
frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(for M_RLT = 0)Contents of data(for M_RLT = 0)
IO allocation
setting(second time)

Request frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

UDP setting tool interface
1

254

65 218 (IO allocation setting
response)
By the class of the EUT* Class 3 (flexible masterfunction not-implemented) :0 (normal) or 2 ( notimplemented)* Classes 3 (flexible masterfunction implemented) and
4 : 0 (normal)
8
Result = 1 (continue)
Information = (no evaluation)
Lock ID = not 0
TCP setting tool interface
253

1

65 018 (IO allocation setting
request)24
Setting number = 1
Number of control slaves(total) = 3
Lock ID = 0
Lock timeout setting value =6
Slave node number =16#8032(flexible setting mode, node
number = 50)
Input data address =16#00A0(area 1, address = 160)
Input data size = 4
Output data address =16#010C(area 1, address = 268)
Output data size = 4
Input status address =16#8258(area2, address = 600)
Output status address =16#8430(area2, address = 1 072)

JEM 1480:2023– 498 –

Table 130 – IO allocation setting (lock timeout)/read (continued)
Setting parameters(test data)(continued)

IO allocation
setting(second time)(continued)

Response
frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(for M_RLT = 1)
Contents of data(for M_RLT = 1)

IO allocation
setting(third time)

Request frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

TCP setting tool interface
1

253

65 218 (IO allocation setting
response)
By the class of the EUT* Class 3 (flexible masterfunction not-implemented) :1 (abnormal) or 2 ( notimplemented)* Classes 3 (flexible masterfunction implemented) and4 : 1 (abnormal)
8
Result = 2 (abnormal)
Information = 4 (locked by
exclusive control)
Lock ID = (no evaluation)
UDP setting tool interface
254

1

65 018 (IO allocation setting
request)24
Setting number = 2
Number of control slaves(total) = 2
Lock ID = Equivalent to thelock ID response frame IO
allocation setting (first time)
Lock timeout setting value =4
Slave node number =16#8064(flexible setting mode, node
number = 100)
Input data address =16#008C(area 1, address = 140)
Input data size = 6
Output data address =16#0108(area 1, address = 264)
Output data size = 8
Input status address =16#8220(area2, address = 544)
Output status address =16#8420(area2, address = 1 056)

– 499 –JEM 1480:2023

Table 130 – IO allocation setting (lock timeout)/read (continued)
Setting parameters(test data)(continued)

IO allocation
setting(third time)(continued)

Response
frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(for M_RLT = 1)
Contents of data(for M_RLT = 1)

IO allocation
setting(fourth time)

Request frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

UDP setting tool interface
1

254

65 218 (IO allocation setting
response)
By the class of the EUT* Class 3 (flexible masterfunction not-implemented) :1 (abnormal) or 2 ( notimplemented)* Classes 3 (flexible masterfunction implemented) and4 : 1 (abnormal)
8
Result = 2 (abnormal)
Information = 5 (exclusive
lock timed out)
Lock ID = (no evaluation)
TCP setting tool interface
253

1

65 018 (IO allocation setting
request)24
Setting number = 1
Number of control slaves(total) = 1
Lock ID = 0
Lock timeout setting value =6
Slave node number =16#8064(flexible setting mode, node
number = 100)
Input data address =16#008C(area 1, address = 140)
Input data size = 6
Output data address =16#0104(area 1, address = 260)
Output data size = 12
Input status address =16#8210(area2, address = 528)
Output status address =16#8410(area2, address = 1 040)

JEM 1480:2023– 500 –

Table 130 – IO allocation setting (lock timeout)/read (continued)
Setting parameters(test data)(continued)

IO allocation
setting(fourth time)(continued)

Response
frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)
Data size(for M_RLT = 0)Contents of data(for M_RLT = 0)

IO allocation
read

Request frame

Response
frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(for M_RLT = 0)Contents of data(for M_RLT = 0)

TCP setting tool interface
1

253

65 218 (IO allocation setting
response)
1

8
Result = 0 (normal)
Information = (no evaluation )Lock ID = not 0
TCP setting tool interface
253

1

65 019 (IO allocation readrequest)4
Setting number = 1
TCP setting tool interface
1

253

65 219 (IO allocation read
response)
By the class of the EUT* Class 3 (flexible masterfunction not-implemented) :0 (normal) or 2 ( notimplemented)* Classes 3 (flexible masterfunction implemented) and
4 : 0 (normal)
20
Setting number = 1
Number of control slaves(total) = 1
Slave node number =16#8064(flexible setting mode, node
number = 100)

– 501 –JEM 1480:2023

Table 130 – IO allocation setting (lock timeout)/read (continued)
Setting parameters(test data)(continued)

IO allocation
read(continued)

Response
frame(continued)

Solicitation frame

Response time limit(request frame transmission response frame reception)

Contents of data(for M_RLT = 0)
(continued)

Node number ofsource side
(SNA)
TCD
Data size
Contents of data

1s

Input data address =16#008C(area 1, address = 140)
Input data size = 6
Output data address =16#0104(area 1, address = 260)
Output data size = 12
Input status address =16#8210(area 2, address = 528)
Output status address =16#8410(area 2, address = 1 040)
1

65 017 (solicitation)
16
Slave node number =16#8064(flexible setting mode, node
number = 100)
Input data address =16#008C(area 1, address = 140)
Input data size = 6
Output data address =16#0104(area 1, address = 260)
Output data size = 12
Input status address =16#8210(area 2, address = 528)
Output status address =16#8410(area 2, address = 1 040)
Lock ID = 1

JEM 1480:2023– 502 –

Table 131 – IO allocation setting (unlock)/read
Test number
Major test group
Test group
Test object
Test procedure

Evaluation criteria

V3-050General purpose command server function
Operation test of double setting tools (coexisting UDP and TCP)
IO allocation setting (unlock)/readStart the EUT, and start the test equipment.
Open the TCP connection from the test equipment (setting tool interface) to the EUT.
Transmit IO allocation setting frame (first time) (request, setting number = 1 / numberof control slaves = 2) from the test equipment (UDP setting tool interface).
After receive IO allocation setting frame (first time) (response) from the EUT, transmit
IO allocation setting frame (second time) (request, unlock) from the test equipment(UDP setting tool interface).
After receive IO allocation setting frame (second time) (response) from the EUT,
transmit IO allocation setting frame (third time) (request, setting number = 1 / numberof control slaves = 1) from the test equipment (TCP setting tool interface).
After receive IO allocation setting frame (third time) (response) from the EUT, transmit
IO allocation read frame (request, setting number = 1) from the test equipment (TCP
setting tool interface).
Close the TCP connection with the EUT.
Confirm that the EUT transmit the IO allocation setting response frame (first time) in
response to IO allocation setting request frame (first time) from the test equipment(UDP setting tool interface).
Confirm the contents of IO allocation setting response frame (first time) (Criteria aredifferent depending on the class of the EUT).
* Classes 3 (flexible master function implemented) and 4 : confirm normal response(M_RLT = 0).
* Class 3 (flexible master function not-implemented) : confirm normal response (M_RLT =0), not-implemented response (M_RLT = 2) or no response.
NOTE: In the case of normal response, confirm that the contents of the data are correct.
Confirm that the EUT transmit the IO allocation setting response frame (second time) in
response to IO allocation setting request frame (second time) from the test equipment(UDP setting tool interface).
Confirm the contents of IO allocation setting response frame (second time) (Criteria aredifferent depending on the class of the EUT).
* Classes 3 (flexible master function implemented) and 4 : confirm normal response(M_RLT = 0).
* Class 3 (flexible master function not-implemented) : confirm normal response (M_RLT =0), not-implemented response (M_RLT = 2) or no response.
NOTE: In the case of normal response, confirm that the contents of the data are correct.
Confirm that the EUT transmit the IO allocation setting response frame (third time) in
response to IO allocation setting request frame (third time) from the test equipment(TCP setting tool interface).
Confirm the contents of IO allocation setting response frame (third time) (Criteria aredifferent depending on the class of the EUT).
* Classes 3 (flexible master function implemented) and 4 : confirm normal response(M_RLT = 0).
* Class 3 (flexible master function not-implemented) : confirm normal response (M_RLT =0), not-implemented response (M_RLT = 2) or no response.
NOTE: In the case of normal response, confirm that the contents of the data are correct.
Confirm that the EUT transmit the IO allocation read frame (response) in response to
IO allocation read request frame from the test equipment (TCP setting tool interface).

– 503 –JEM 1480:2023

Table 131 – IO allocation setting (unlock)/read (continued)
Evaluation criteria(continued)

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameters(node)

Setting parameters(test data)

Confirm the contents of IO allocation read frame (response) (Criteria are different
depending on the class of the EUT).
* Classes 3 (flexible master function implemented) and 4 : confirm normal response(M_RLT = 0).
* Class 3 (flexible master function not-implemented) : confirm normal response (M_RLT =0 ), not-implemented response (M_RLT = 2) or no response.
NOTE: In the case of normal response, confirm that the data content is equal to thesettings from the TCP setting tool interface.
Confirm that the EUT transmit a solicitation frame that based on the settings from TCP
setting tool interface.
NN
O (when implementing the TCP command server function)
O (when implementing the TCP command server function)
N
N
N
EUT
Classes 3 andNode number
1
4
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top
256
address
Area 1 data size
16
Area 2 data top
1 024
address
Area 2 data size
64
IO allocation setting
optional(for class 4)
Test
Classes 3 andImplementation class3 (controller)
equipment
4
Node number
254
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top
4
address
Area 1 data size
4
Area 2 data top
64
address
Area 2 data size
64
IO allocation
Request frame Interface
UDP setting tool interface
setting
Node number of254(first time)source side
(SNA)
Node number of1
destination side
(DNA)
TCD
65 018 (IO allocation setting
request)Data size
24

JEM 1480:2023– 504 –

Table 131 – IO allocation setting (unlock)/read (continued)
Setting parameters(test data)(continued))

IO allocation
setting(first time)(continued)

Request frame(continued)

Contents of data

Response
frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(for M_RLT = 0)Contents of data(for M_RLT = 0)
IO allocation
setting(second time)

Request frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

Setting number = 1
Number of control slaves(total) = 2
Lock ID = 0
Lock timeout setting value =4
Slave node number =16#800C(flexible setting mode, node
number = 12)
Input data address =16#0080(area 1, address = 128)
Input data size = 4
Output data address =16#0100(area 1, address = 256)
Output data size = 8
Input status address =16#8200(area 2, address = 512)
Output status address =16#8400(area 2, address = 1 024)
UDP setting tool interface
1

254

65 218 (IO allocation setting
response)
By the class of the EUT* Class 3 (flexible masterfunction not-implemented) :0 (normal) or 2 ( notimplemented)* Classes 3 (flexible masterfunction implemented) and
4 : 0 (normal)
8
Result = 1 (continue)
Information = (no evaluation)
Lock ID = not 0
UDP Setting tool interface
254

1

65 018 (IO allocation setting
request)24
Setting number = 16#FFFF
Number of control slaves(total) = 16#FFFF
Lock ID = Equivalent to thelock ID response frame IO
allocation setting (first time)– 505 –JEM 1480:2023

Table 131 – IO allocation setting (unlock)/read (continued)
Setting parameters(test data)(continued)

IO allocation
setting(second time)(continued)

Request frame(continued)

Contents of data(continued)

Response
frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(for M_RLT = 0)Contents of data(for M_RLT = 0)
IO allocation
setting(third time)

Request frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data

Lock timeout setting value =4
Slave node number = 0
Input data address = 0
Input data size = 0
Output data address = 0
Output data size = 0
Input status address = 0
Output status address = 0
UDP setting tool interface
1

254

65 218 (IO allocation
setting response)
By the class of the EUT* Class 3 (flexible masterfunction not-implemented) :0 (normal) or 2 ( notimplemented)* Classes 3 (flexible masterfunction implemented) and
4 : 0 (normal)
8
Result = 0 (normal)
Information = (no evaluation)
Lock ID = (no evaluation)
TCP setting tool interface
253

1

65 018 (IO allocation setting
request)24
Setting number = 1
Number of control slaves(total) = 1
Lock ID = 0
Lock timeout setting value =2
Slave node number =16#8032(flexible setting mode, node
number = 50)
Input data address =16#00A0(area 1, address = 160)
Input data size = 4

JEM 1480:2023– 506 –

Table 131 – IO allocation setting (unlock)/read (continued)
Setting parameters(test data)(continued)

IO allocation
setting(third time)(continued)

Request frame(continued)

Contents of data(continued)

Response
frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Data size(for M_RLT = 0)Contents of data(for M_RLT = 0)

IO allocation
read

Request frame

Response
frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message(M_RLT)

Output data address:
16#0108(area 1, address = 264)
Output data size: 4
Input status address =16#8258(area 2, address = 600)
Output status address =16#8420(area 2, address = 1 056)
TCP setting tool interface
1

253

65 218 (IO allocation setting
response)
By the class of the EUT* Class 3 (flexible masterfunction not-implemented) :0 (normal) or 2 ( notimplemented)* Classes 3 (flexible masterfunction implemented) and
4 : 0 (normal)
8
Result = 0 (normal)
Information = (noevaluation)
Lock ID = not 0
TCP setting tool interface
253

1

65 019 (IO allocation readrequest)4
Setting number = 1
TCP setting tool interface
1

253

65 219 (IO allocation read
response)
By the class of the EUT* Class 3 (flexible masterfunction not-implemented) :0 (normal) or 2 ( notimplemented)* Classes 3 (flexible masterfunction implemented) and
4 : 0 (normal)

– 507 –JEM 1480:2023

Table 131 – IO allocation setting (unlock)/read (continued)
Setting parameters(test data)(continued)

IO allocation
read(continued)

Response
frame(continued)

Solicitation frame

Response time limit(request frame transmission response frame reception)

Data size(for M_RLT = 0)Contents of data(for M_RLT = 0)

Node number ofsource side
(SNA)
TCD
Data size
Contents of data

1s

20
Setting number = 1
Number of control slaves(total) = 1
Slave node number =16#8032(flexible setting mode, node
number = 50)
Input data address =16#00A0(area 1, address = 160)
Input data size = 4
Output data address=16#0108(area 1, address = 264)
Output data size = 4
Input status address =16#8258(area 2, address = 600)
Output status address =16#8420(area 2, address = 1 056)
1

65 017 (solicitation)
16
Slave node number =16#8032(flexible setting mode, node
number = 50)
Input data address =16#00A0(area 1, address = 160)
Input data size = 4
Output data address =16#0108(area 1, address = 264)
Output data size = 4
Input status address =16#8258(area 2, address = 600)
Output status address =16#8420(area 2, address = 1 056)
Lock ID = 1

JEM 1480:2023– 508 –

Table 132 – Token retention time measurement start/end
Test number
Major test group
Test group
Test object
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

V3-051
General purpose command server function
Operation test of double setting tools (coexisting UDP and TCP)
Token retention time measurement start/end
Start the EUT, and start the test equipment. Continue, start the dummy node.
Open the TCP connection from the test equipment (setting tool interface) to the EUT.
Transmit token retention time measurement start frame (first time) (request) from thetest equipment (UDP setting tool interface).
Disengage from the network the test equipment (stop the transmission of the token
frame).
Rejoin the network the test equipment.
10 s after the test equipment rejoin the network, transmit start frame of token retention
time measuring (second time) (request) from the test equipment (TCP setting toolinterface).
60 s after receive start frame of token retention time measuring (second time)(response) from the EUT, transmit end frame of token retention time measuring(second time) (request) from the test equipment (UDP setting tool interface).
After receive end frame of token retention time measuring (first time) (response) fromthe EUT, transmit end frame of token retention time measuring (second time) (request)from the test equipment (TCP setting tool interface).
Close the TCP connection with the EUT.
Confirm that the EUT transmit the start (first time) response frame in response torequest transmission of start (first time) from the test equipment (UDP setting toolinterface).
Confirm that start (first time) response frame is normal response (M_RLT = 0).
Confirm that the EUT transmit the start (second time) response frame in response torequest transmission of start (second time) from the test equipment (TCP setting toolinterface).
Confirm that start (second time) response frame is normal response (M_RLT = 0).
Confirm that the EUT transmit the end (first time) response frame in response torequest transmission of end (first time) from the test equipment (UDP setting toolinterface).
Confirm that end (first time) response frame is normal response (M_RLT = 0) and thecontents of data is as follows:* number of tokens during measuring the token retention time = not 0g) Confirm that the EUT transmit the end (second time) response frame in response torequest transmission of end (second time) from the test equipment (TCP setting toolinterface).
h) Confirm that end (second time) response frame is normal response (M_RLT = 0)
and the contents of data is equal to end (first time) response data.
NN
O (when implementing the TCP command server function)
O (when implementing the TCP command server function and command server load
measurement function)
O (when implementing the TCP command server function and command server load
measurement function)
O (when implementing the TCP command server function and command server load
measurement function)
O (when implementing the TCP command server function and command server load
measurement function)

– 509 –JEM 1480:2023

Table 132 – Token retention time measurement start/end (continued)
Setting parameters(node)EUT(By class,different
parameters)

Classes 3 and4Class 5Classes 6 and
7Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(By the classof EUT,
different
parameters)

Classes 3, 4
and 5

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
4
0
16
Optional
100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
Calculated from the numberof input points of the slave of
the EUT0
Calculated from the numberof input points of the slave
and the number of output
points of slave of the EUT
3 (controller)
254
50
10
4
4
64
64

JEM 1480:2023– 510 –

Table 132 – Token retention time measurement start/end (continued)
Setting parameters(node)(continued)

Test
equipment(By the classof EUT,
different
parameters)(continued)

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)4 (flexible master)
254
50
10
By the number of output
points of the slave of theEUT* 0 point : 0* more than 1 point : 256
Calculated from the numberof output points of the slaveof the EUT
1 024
1 024
1

Slave node number =16#8001(flexible setting mode, node
number = 1)
Input data address =16#0000(area 1，address = 0)
Input data size = Calculated
from the number of input
points of the slave of the
EUT
Output data address = by the
number of output points ofthe slave of the EUT* 0 point : 16#0000(area 1，address = 0)
* more than 1 point :16#0100(area 1，address = 256)
Output data size =Calculated from the numberof output points of the slaveof the EUT
Input status address =16#8000(area 2, address = 0)
Output status address =16#8400(area 2, address = 1 024)

– 511 –JEM 1480:2023

Table 132 – Token retention time measurement start/end (continued)
Setting parameters(node)(continued)

Test
equipment(By the classof EUT,
different
parameters)(continued)

Class 7

Dummy node

Setting parameters(test data)Token
retention timemeasurement
start(first time)

Request frame

Response
frame

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)
Data size(for M_RLT = 0)Contents of data

3 (controller)
254
50
10
256
4
1 024
64
3 (controller)
2
50
10
0
0
0
0
UDP setting tool interface254

By the class of the EUT* Classes 3, 4, 6 and 7 : 1* Class 5 : 100
65 020 (token retention timemeasurement start request)
0NA
UDP setting tool interface
By the class of the EUT* Classes 3, 4, 6 and 7 : 1* Class 5 : 100
254

65 220 (token retention timemeasurement start response)
0 (normal)
0
NAJEM 1480:2023– 512 –

Table 132 – Token retention time measurement start/end (continued)
Setting parameters(test data)(continued)

Tokenretention timemeasurement
start(second time)

Request frame

Response
frame

Token
retention timemeasurementend( first time)

Request frame

Response
frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)
Data size(for M_RLT = 0)Contents of data
Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)
Data size(for M_RLT = 0)Contents of data(for M_RLT = 0)

TCP setting tool interface
253

By the class of the EUT* Classes 3, 4, 6 and 7 : 1* Class 5 : 100
65 020 (token retention timemeasurement start request)
0NA
TCP setting tool interface
By the class of the EUT* Classes 3, 4, 6 and 7 : 1* Class 5 : 100
253

65 220 (token retention timemeasurement start response)
0 (normal)
0NA
UDP setting tool interface254

By the class of the EUT* Classes 3, 4, 6 and 7 : 1* Class 5 : 100
65 021 (Token retention timemeasurement end request)
0NA
UDP setting tool interface
By the class of the EUT* Classes 3, 4, 6 and 7 : 1* Class 5 : 100
254

65 221 (Token retention timemeasurement end response)
0 (normal)
76
number of tokens during
measuring the token
retention time = not 0

– 513 –JEM 1480:2023

Table 132 – Token retention time measurement start/end (continued)
Setting parameters(test data)(continued)

Tokenretention timemeasurementend(second time)

Request frame

Response
frame

Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Data size
Contents of data
Interface
Node number ofsource side
(SNA)
Node number ofdestination side
(DNA)
TCD
Type of response
message (M_RLT)
Data size(for M_RLT = 0)Contents of data(for M_RLT = 0)

Response time limit(request frame transmission response frame reception)

1s

TCP setting tool interface
253

By the class of the EUT* Classes 3, 4, 6 and 7 : 1* Class 5 : 100
65 021 (Token retention timemeasurement end request)
0NA
TCP setting tool interface
By the class of the EUT* Classes 3, 4, 6 and 7 : 1* Class 5 : 100
253

65 221 (Token retention timemeasurement end response)
0 (normal)
76
measuring time for token
retention time = (equal to thefirst end response)
number of tokens during
measuring the token
retention time (equal to thefirst end response)

JEM 1480:2023– 514 –

Table 133 – General purpose communication data sender log measurement start/end
Test number
Major test group
Test group
Test object
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

V3-052
General purpose command server function
Operation test of double setting tools (coexisting UDP and TCP)
General purpose communication data sender log measurement start/end
Start the EUT, and start the test equipment.
Open the TCP connection from the test equipment (setting tool interface) to the EUT.
Transmit general purpose communication data sender log measurement start frame(first time) (request)from the test equipment (UDP setting tool interface).
10 s after receive general purpose communication data sender log measurement startframe (first time) (response) from the EUT, transmit general purpose communication
data (first time) from the test equipment.
Transmit general purpose communication data sender log measurement start frame(second time) (request) from the test equipment (TCP setting tool interface).
After receive general purpose communication data sender log measurement startframe (second time) (response) from the EUT, transmit general purpose
communication data (second time) from the test equipment.
60 s after receive general purpose communication data sender log measurement startframe (second time) (response) from the EUT, transmit general purpose
communication data sender log measurement end frame (first time) (request) from thetest equipment (UDP setting tool interface).
After receive general purpose communication data sender log measurement end frame(second time) (response) from the EUT, transmit general purpose communication data
sender log measurement end frame (second time) (request) from the test equipment(TCP setting tool interface).
Close the TCP connection with the EUT.
Confirm that the EUT transmit the start (first time) response frame in response torequest transmission of start (first time) from the test equipment (UDP setting toolinterface).
Confirm that start (first time) response frame is normal response (M_RLT = 0).
Confirm that the EUT transmit the start (second time) response frame in response torequest transmission of start (second time) from the test equipment (TCP setting toolinterface).
Confirm that start (second time) response frame is normal response (M_RLT = 0).
Confirm that the EUT transmit the end (first time) response frame in response torequest transmission of end (first time) from the test equipment (UDP setting toolinterface).
Confirm that end (first time) response frame is normal response (M_RLT = 0).
Confirm that the EUT transmit the end (second time) response frame in response torequest transmission of end (second time) from the test equipment (TCP setting toolinterface).
Confirm that end (second time) response frame is normal response (M_RLT = 0) andthe contents of data is equal to end (first time) response data.
NN
O (when implementing the TCP command server function)
O (when implementing the TCP command server function and command server load
measurement function)
O (when implementing the TCP command server function and command server load
measurement function)
O (when implementing the TCP command server function and command server load
measurement function)
O (when implementing the TCP command server function and command server load
measurement function)

– 515 –JEM 1480:2023

Table 133 – General purpose communication data sender log measurement start/end(continued)
Setting parameters(node)EUT(By class,different
parameters)

Classes 3 and4Class 5Classes 6 and
7Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(for class 4)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment(By the classof EUT,
different
parameters)

Classes 3, 4
and 5Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time

1
(50)
(10)
0
4
0
16
Optional
100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
Calculated from the number of
input points of the slave of the
EUT
0
Calculated from the number of
input points of the slave andthe number of output points ofslave of the EUT
3 (controller)
254
50
10
4
4
64
64
4 (flexible master)
254
50
10

JEM 1480:2023– 516 –

Table 133 – General purpose communication data sender log measurement start/end(continued)
Setting parameters(node)(continued)

Test
equipment(By the classof EUT,
different
parameters)(continued)

Class 6
(continued)

Class 7

Setting parameters(test data)

Generalpurposecommunicati
on datasender log
measurement start(The firsttime)

request frame

Area 1 data top
address

Depends on number of output
points of the slave

Area 1 data size

To be calculated from the numberof output points of the slave

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

1 024

Implementation
class
Node number
Token watchdog
time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Data size
Contents of data

* 0 point : 0* 1 point or more: 256

1 024
1

Slave node number = 16#8001(flexible setting mode, node
number = 1)
Input data address = 16#0000(area 1，address = 0)
Input data size = Calculated
from the number of input pointsof the slave of the EUT
Output data address = by the
number of output points of theslave of the EUT* 0 point : 16#0000(area 1，address = 0)
* more than 1 point : 16#0100(area 1，address = 256)
Output data size = Calculated
from the number of output
points of the slave of the EUT
Input status address =16#8000(area 2, address = 0)
Output status address =16#8400(area 2, address = 1 024)
3 (controller)
254
50
10
256
4
1 024
64
UDP setting tool interface
254

According to the EUT class:* Classes 3, 4, 6 and 7: 1
* Class 5: 100
65 022(general purpose
communication data sender
log measurement start
request)0NA– 517 –JEM 1480:2023

Table 133 – General purpose communication data sender log measurement start/end(continued)
Setting parameters(test data)(continued)

Generalpurposecommunicati
on datasender log
measurement start(The firsttime)(continued)

Generalpurposecommunicati
on data(The firsttime)

response frame

Pattern 1

Pattern 2Generalpurposecommunicati
on datasender log
measurement start(The second
time)request frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)
TCD

Type of response
message (M_RLT)
Data size(M_RLT = 0)Contents of data
Interface
Source IP address
Destination IP
address

Source port number
Destination port
numberData
Number oftransmissions
Interface
Source IP address
Destination IP
address
Source port number
Destination port
numberData
Number oftransmissions
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)

TCD

Data size
Contents of data

UDP setting tool interface
According to the EUT class:* Classes 3, 4, 6 and 7: 1
* Class 5: 100
254

65 222(general purpose
communication data sender
log measurement start
response)0(normal)
0NA
TCP
192.168.250.254
According to the EUT class:* Classes 3, 4, 6 and 7:
192.168.250.1* Class 5: 192.168.250.100
55 00355 000
optional
1 timeUDP
1.2.3.4
1.2.3.255
10 000
10 001
optional
2 times
TCP setting tool interface
253

The parameter varies
according to
the EUT class* Classes 3, 4, 6 and 7:1* Class 5: 100
65 022(General purpose
communication data sender
log measurement start
request)0
NAJEM 1480:2023– 518 –

Table 133 – General purpose communication data sender log measurement start/end(continued)
Setting parameters(test data)(continued)

Generalpurposecommunicati
on datasender log
measurement start(The second
time)(continued)

Generalpurposecommunicati
on data(The second
time)

response frame

Interface
Node address ofsource side
(SNA)

Node address ofdestination side
(DNA)
TCD

Pattern N(N: 1～6)

Pattern 7

Pattern 8

Pattern 9

Type of response
message (M_RLT)
Data size(M_RLT = 0)Contents of data
Interface
Source IP address
Destination IP
address
Source port number
Destination port
numberData
Number oftransmissions
Interface
Source IP address
Destination IP
address
Source port number
Destination port
numberData
Number oftransmissions
Interface
Source IP address
Destination IP
address
Source port number
Destination port
numberData
Number oftransmissions
Interface
Source IP address
Destination IP
address
Source port number
Destination port
numberData
Number oftransmissions

TCP setting tool interface
The parameter varies
according to
the EUT class* Classes 3, 4, 6 and 7:1* Class 5: 100
253

65 222(general purpose
communication data sender
log measurement start
response)0(normal)
0NA
TCP
192.168.250.(248＋N)
According to the EUT class:* Classes 3, 4, 6 and 7:
192.168.250.1* Class 5: 192.168.250.100
54 998＋N
54 998＋N
optional
N timesUDP
1.2.3.4
1.2.3.255
10 000
10 001
optional
10 times
UDP
192.168.0.254
192.168.0.255
55 00155 000
optional
9 timesUDP
192.168.250.125
192.168.250.255
55 00255 001
optional
8 times

– 519 –JEM 1480:2023

Table 133 – General purpose communication data sender log measurement start/end(continued)
Setting parameters(test data)(continued)

Generalpurposecommunicati
on data(The second
time)(continued)

Pattern 10

Pattern 11

Generalpurposecommunicati
on datasender log
measurement end(The firsttime)

request frame

Interface
Source IP address
Destination IP
address
Source port number
Destination port
numberData
Number oftransmissions
Interface
Source IP address
Destination IP
address

Source port number
Destination port
numberData
Number oftransmissions
Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)

TCD

response frame

Data size
Contents of data
Interface
Node address ofsource side
(SNA)

Node address ofdestination side
(DNA)
TCD

Type of response
message (M_RLT)
Data size(M_RLT = 0)Contents of data
(M_RLT = 0)

UDP
123.45.6.78
123.45.6.255
55 00055 003
optional
7 times
TCP
192.168.250.200
According to the EUT class:* Classes 3, 4, 6 and 7:.

192.168.250.1* Class 5: 192.168.250.100
55 00355 000
optional
6 times
UDP setting tool interface
254

The parameter varies
according to
the EUT class* Classes 3, 4, 6 and 7:1* Class 5: 100
65 023(General purpose
communication data sender
log measurement stop request)
0NA
UDP setting tool interface
The parameter varies
according to
the EUT class* Classes 3, 4, 6 and 7:1* Class 5: 100
254

65 223(General purpose
communication data sender
log measurement stop
response)0(normal)84
optional (no evaluation)

JEM 1480:2023– 520 –

Table 133 – General purpose communication data sender log measurement start/end(continued)
Setting parameters(test data)(continued)

Generalpurposecommunicati
on datasender log
measurement stop(The second
time)request frame

Interface
Node address ofsource side
(SNA)
Node address ofdestination side
(DNA)

TCD

response frame

Data size
Contents of data
Interface
Node address ofsource side
(SNA)

Node address ofdestination side
(DNA)
TCD

Type of response
message (M_RLT)
Data size(M_RLT = 0)Contents of data
(M_RLT = 0)

TCP setting tool interface
253
The parameter varies
according to
the EUT class* Classes 3, 4, 6 and 7:1* Class 5: 100
65 023(General purpose
communication data sender
log measurement stop request)
0NA
TCP setting tool interface
The parameter varies
according to
the EUT class* Classes 3, 4, 6 and 7:1* Class 5: 100
253
65 223(General purpose
communication data sender
log measurement stop
response)0(normal)84
Measuring time for general
purposecommunication data senderlog:(Identical to the first stop
response)
IP1: (Identical to the first stop
response)
IP1 receiving counter:(Identical to the first stop
response)
IP2: (Identical to the first stop
response)IP2 receiving counter:(Identical to the first stop
response)
IP3: (Identical to the first stop
response)
IP3 receiving counter:(Identical to the first stop
response)
IP4: (Identical to the first stop
response)
IP4 receiving counter:(Identical to the first stop
response)
IP5: (Identical to the first stop
response)
IP5: receiving counter:(Identical to the first stop
response)
IP6: (Identical to the first stop
response)

– 521 –JEM 1480:2023

Table 133 – General purpose communication data sender log measurement start/end(continued)
Setting parameters(test data)(continued)

Generalpurposecommunicati
on datasender log
measurement stop(The second
time)(continued)

response frame(continued)

Response time limit(request frame transmission ～response frame reception)

6.6.11

Contents of data
(M_RLT = 0)
(continued)

IP6 receiving counter:(Identical to the first stop
response)
IP7: (Identical to the first stop
response)
IP7 receiving counter:(Identical to the first stop
response)
IP8: (Identical to the first stop
response)
IP8 receiving counter:(Identical to the first stop
response)
IP9: (Identical to the first stop
response)
IP9 receiving counter:(Identical to the first stop
response)
IP10: (Identical to the first stop
response)
IP10 receiving counter:(Identical to the first stop
response)

1s

Device Level Network Functions

Device level network functions are tested as described in Table 134 to Table 159.
a)

Slaves in fixed setting mode Slaves in fixed setting mode are tested as in Table 134 to Table 137.
Table 134 – Slave status, actual slave type, and simple setting area

Test No.
Major test group
Test group
Test objects
Test procedureevaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

V3-053
Device level network function
Slave in fixed setting mode
Slave status，actual slave type, and simple setting area
Start the EUT (fixed slave), and then start the test equipment (fixed master).
Subsequently, start the dummy node (controller).
Disengage the test equipment from the network (stop sending token frames).
Re-join the test equipment to the network.
Disengage dummy node from the network (stop sending token frames).
Confirm the values of actual slave type and simple setting area in the input status areaof the EUT by referring to the common memory.
Check the common memory values to confirm that the slave status value in the input
status area of the EUT is No Master (4) at the time of test procedure b).
Check the common memory values to confirm that the slave status value in the input
status area of the EUT is not No Master (4) at the time of test procedure c).
Check the common memory values to confirm that the slave status value in the input
status area of the EUT is not No Master (4) at the time of test procedure d).
N
N
N
N
N
O (when implementing the fixed slave function.)R

JEM 1480:2023– 522 –

Table 134 – Slave status, actual slave type, and simple setting area (continued)
Setting parameter(node)

EUT(fixed slave)

Node number
Token watchdog time
Allowable minimum frameinterval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

Test equipment

dummy node

Setting parameters(test data)

Master output(Output from test
equipment to EUT)

Implementation class
Node number
Token watchdog time
Allowable minimum frameinterval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum frameinterval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Output data (For #1)
Remote control area (For#1)
Specified slave type (For#1)
Simple setting area (For#1)

Slave output(Output from EUT to test
equipment)

Reserved area (For #1)
Input data
Slave status
Actual slave type

Simple setting area

General-purpose status
area

1
(50)
(10)
0
Calculate from the number of
input slave points in EUT.
0
Calculate from the number of
input slave points and output
slave points in EUT.
5 (Fixed master)
100
(100)
(10)
256
256
1 024
1 024
3(Controller)
2
50
10
0
0
0
0
Optional
16#0001 (Remote operation)
Calculate from the number of
input slave points and output
slave points in EUT.
Master node number
instructions: 16#00(default)
Slave operating instructions:
16#0000
Master specified area: All 0
All 0(no evaluation)
Confirm according toevaluation criteria.
Calculate from the number of
input slave points and output
slave points in EUT.
Master node number: 100
Slave operation setting
confirmation status: 16#0000
Master specified area: All 0(no evaluation)

– 523 –JEM 1480:2023

Table 135 – IO output upon disengagement of the master
Test No.
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameters(node)

V3-054
Device level network function
Slave in fixed setting mode
IO output upon disengagement of the masterStart the EUT (fixed slave), and then start the test equipment (fixed master).
Subsequently, start the dummy node (controller).
In the test equipment, assign a value (excluding “0”) for the data output to the EUT.
In the test equipment, set the IO output value for the EUT upon slave operation
instructions—disengagement of the master in the output status area to Clear (0).
Disengage the test equipment from the network (stop transmitting token frames).
Re-join the test equipment to the network.
In the test equipment, set the IO output value for the EUT upon slave operation
instructions—disengagement of the master in the output status area to Hold (1).
Disengage the test equipment from the network (stop transmitting token frames).
Check the EUT to confirm that the output data in the EUT is receiving any value
different than “0” at the time of test procedure b).
In test procedure c), check the common memory values to confirm that IO output uponslave operation setting confirmation status—disengagement of the master in the input
status area of the EUT is Clear (0).
Check the EUT to confirm that the output data in the EUT is receiving “0” at the time oftest procedure d).
Check the EUT to confirm that the output data in the EUT is receiving any value
different than “0” at the time of test procedure e).
In test procedure f), check the common memory values to confirm that the IO output
upon slave operation setting confirmation status—disengagement of the master in the
input status area of the EUT is Hold (1).
Check the EUT to confirm that the output data in the EUT is receiving any value
different than “0” at the time of test procedure g).
N
N
N
N
N
O (in case that Fixed slave function is implemented and that number of the output slave
points is equal to or more than one.)O (in case that the output slave points are more than 1 point.)
EUT (Fixed slave)
Node number
1
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top
0
address
Area 1 data size
Calculate from the number of
input slave points in EUT.
Area 2 data top
0
address
Area 2 data size
Calculate from the number of
input slave points and output
slave points in EUT.
Test equipment
Implementation class
5 (Fixed master)
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time

JEM 1480:2023– 524 –

Table 135 – IO output upon disengagement of the master (continued)
Setting parameters(node)(continued)

Test equipment(continued)

dummy node

Setting parameters(test data)

Master output(Output from test equipment to
EUT)

Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Output data (For #1)
Remote control area
(For #1)
Specified slave type
(For #1)
Simple setting area
(For #1)

Slave output(Output from EUT to test
equipment)

Reserved area (For#1)
Input data
Slave status
Actual slave type
Simple setting area

General-purpose
status area

256
256
1 024
1 024
3 (controller)
2
50
10
0
0
0
0
Optional except zero (0)16#0001 (Remote operation)
Calculate from the number of
input slave points and output
slave points in EUT.
Master node number
instructions: 16#00(default)
Slave operating instructions:
Depends on the test
procedure:* Test procedure c):
16#0000* Test procedure f):
16#0001
Master specified area: All 0
All 0(no evaluation)(no evaluation)(no evaluation)
Master node number: (noevaluation)
Slave operation setting
confirmation status: Depends
on the evaluation criteria:* Evaluation criteria b):
16#0000* Evaluation criteria e):
16#0001
Master specified area: (noevaluation)(no evaluation)

– 525 –JEM 1480:2023

Table 136 – IO output upon remote control flag OFF
Test No.
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameters(node)

V3-055
Device level network function
Slave in fixed setting mode
IO output upon remote control flag OFF
Start the EUT (fixed slave), and then start the test equipment (fixed master).
In the test equipment, set the remote control flag for the EUT to Remote Operation (1).
In the test equipment, assign any value other than “0” to data output to the EUT.
In the test equipment, set the IO output value for the EUT upon slave operation
instructions—remote control flag OFF in the output status area to Clear (0).
In the test equipment, set the remote control flag for the EUT to Remote Stop (0).
In the test equipment, set the remote control flag for the EUT to Remote Operation (1).
In the test equipment, set the IO output value for the EUT upon slave operation
instructions—remote control flag OFF in the output status area to Hold (1).
In the test equipment, set the remote control flag for the EUT to Remote Stop (0).
Check the EUT to confirm that the output data in the EUT is receiving any value
different than “0” at the time of test procedure c).
In test procedure d), check the common memory values to confirm that the IO output
value upon slave operation setting confirmation status—remote control flag OFF in the
input status area of the EUT is Clear (0).
Check the EUT to confirm that the output data in the EUT is receiving “0” at the time oftest procedure e).
Check the EUT to confirm that the output data in the EUT is receiving any value
different than “0” at the time of test procedure f).
In test procedure g), check the common memory values to confirm that the IO output
value upon slave operation setting confirmation status—remote control flag OFF in the
input status area of the EUT is Hold (1).
Check the EUT to confirm that the output data in the EUT is receiving any value
different than “0” at the time of test procedure h).
N
N
N
N
N
O (in case that Fixed slave function is implemented and that number of the output slave
points is equal to or more than one.)O (in case that the output slave points are more than 1 point.)
EUT
Node number
1(Fixed slave)
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top
0
address
Area 1 data size
Calculate from the number of
input slave points in EUT.
Area 2 data top
0
address
Area 2 data size
Calculate from the number of
input slave points and output
slave points in EUT.

JEM 1480:2023– 526 –

Table 136 – IO output upon remote control flag OFF (continued)
Setting parameters(node)(continued)

Setting parameters(test data)

Test equipment

Master output(Output from test equipment to
EUT)

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Output data (For #1)
Remote control area
(For #1)

Specified slave type
(For #1)
Simple setting area
(For #1)

Slave output(Output from EUT to test
equipment)

Reserved area (For#1)
Input data
Slave status
Actual slave type
Simple setting area

General-purpose
status area

5 (Fixed master)
100
(100)
(10)
256
256
1 024
1 024
Optional except zero (0)Depends on the test
procedure:* Test procedures b) and f):
16#0001* Test procedures e) and h):
16#0000
Calculate from the number of
input slave points and output
slave points in EUT.
Master node number
instructions: 16#00 (default)
Slave operating instructions:
Depends on the test
procedure:* Test procedure d):
16#0000* Test procedure g):
16#0002
Master specified area: All 0
All 0(no evaluation)(no evaluation)(no evaluation)
Master node number: (noevaluation)
Slave operation setting
confirmation status: Depends
on the evaluation criteria:* Evaluation criteria b):
16#0000* Evaluation criteria e):
16#0002
Master specified area: (noevaluation)(no evaluation)

– 527 –JEM 1480:2023

Table 137 – IO input upon remote control flag OFF
Test No.
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameters(node)

V3-056
Device level network function
Slave in fixed setting mode
IO input upon remote control flag OFF
Start the EUT (fixed slave), and then start the test equipment (fixed master).
In the test equipment, set the remote control flag for the EUT to Remote Operation (1).
Assign any value (when IO input is available) to the input data of the EUT.
In the test equipment, set the IO input value for the EUT upon slave operation
instructions—remote control flag OFF in the output status area to Clear (0).
In the test equipment, set the remote control flag for the EUT to Remote Stop (0).
In the test equipment, set the remote control flag for the EUT to Remote Operation (1).
In the test equipment, set the IO input value for the EUT upon slave operation
instructions—remote control flag OFF in the output status area to Hold (1).
In the test equipment, set the remote control flag for the EUT to Remote Stop (0).
In test procedure d), check the common memory values to confirm that the IO input
value upon slave operation setting confirmation status—remote control flag OFF in the
input status area of the EUT is Clear (0).
Check the EUT to confirm whether input data in the EUT is not receiving the value
when IO input is available (cleared) at the time of test procedure e).
Check the EUT to confirm whether the input data in the EUT is receiving the value
assigned in test procedure c) when the IO input is available at the time of test
procedure f).
In test procedure g), check the common memory values to confirm that the IO input
value upon slave operation setting confirmation status—remote control flag OFF in the
input status area of the EUT is Hold (1).
Check the EUT to confirm whether the input data in the EUT is receiving the value
assigned in test procedure c) when the IO input is available at the time of test
procedure h).
N
N
N
N
N
O (in case that Fixed slave function is implemented and that number of the input slave
points is equal to or more than one.)O (in case that the input slave points are more than 1 point.)
EUT (Fixed slave)
Node number
1
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top
0
address
Area 1 data size
Calculate from the number of
input slave points in EUT.
Area 2 data top
0
address
Area 2 data size
Calculate from the number of
input slave points and output
slave points in EUT.
Test equipment
Implementation class
5 (Fixed master)
Node number
100
Token watchdog time(100)

JEM 1480:2023– 528 –

Table 137 – IO input upon remote control flag OFF (continued)
Setting parameters(node)(continued)

Test equipment(continued)

Setting parameters(test data)

Master output(Output from test
equipment to EUT)

Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Output data (For #1)
Remote control area
(For #1)

Specified slave type
(For #1)
Simple setting area (For#1)

Slave output(Output from EUT to test
equipment)

Reserved area (For #1)
Input data

Slave status
Actual slave type
Simple setting area

General-purpose status
area

b)

(10)
256
256
1 024
1 024
optional except zero (0)Depends on the test procedure:* Test procedures b) and f):
16#0001* Test procedures e) and h):
16#0000
Calculate from the number of input
slave points and output slave
points in EUT.
Master node number instructions:
16#00(default)
Slave operating instructions:
Depends on the test procedure:* Test procedure d): 16#0000* Test procedure g): 16#0004
Master specified area: All 0
All 0
Depends on the evaluation
criteria:* Evaluation criteria c) and e):
Value upon IO effective* Evaluation criteria b): Value
appropriate to Clear(no evaluation)(no evaluation)
Master node number: (noevaluation)
Slave operation setting
confirmation status: Depends onthe evaluation criteria:* Evaluation criteria b): 16#0000* Evaluation criteria e): 16#0004
Master specified area: (noevaluation)(no evaluation)

Mater in fixed setting mode Master in fixed setting mode are tested as in Table 138 and Table
139.
Table 138 – Input and output data

Test No.
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

V3-057
Device level network function
Master in fixed setting mode
Input and output data
Start the EUT (fixed master), and then start the test equipment (fixed slave).
From the EUT, change the output data to the test equipment.
Change the input data into the test equipment.
Check the common memory values to confirm whether test procedure b) changed theoutput data from the EUT to the test equipment.
Check the EUT to confirm whether test procedure c) changed the input data to theEUT.

– 529 –JEM 1480:2023

Table 138 – Input and output data (continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameters(node)NN
N
O (when implementing the fixed master function.)
R
N
N
EUT
Node number(Fixed master)
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
slave setting (#11)

Test equipment

Setting parameters(test data)

Master output(Output from the EUT to the test
equipment)

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Number of input
points of the slave
Number of output
points of the slave
Output data
(Common memoryarea 1: 16#0128 to
16#012F)
Remote control area
(Common memoryarea 2: 16#04A0)
Specified slave type(Common memoryarea 2: 16#04A1,
16#04B1)
Simple setting area
(Common memoryarea 2: 16#04A2 to
16#04A9)

Reserved area
(Common memoryarea 2: 16#04AA to
16#04AF)

100
(100)
(10)
256
256
1 024
1 024
Number of input points of theslave: 96
Number of output points ofthe slave: 32
7(Fixed slave)
11
(50)
(10)
40
8
160
32
96
32
Optional

16#0001 (Remote run)(no evaluation)

Master node number
instructions: 16#00 (default)
Slave operating instructions:(no evaluation)
Master specified area: (noevaluation)(no evaluation)

JEM 1480:2023– 530 –

Table 138 – Input and output data (continued)
Setting parameters(test data)(continued)

Slave output(Output from the test equipment
to the EUT)

Input data
(Common memoryarea 1: 16#0028～
16#002F)
Slave status(Common memoryarea 2: 16#00A0)
Actual slave type (1)(Common memoryarea 2: 16#00A1)

Actual slave type (2)(Common memoryarea 2: 16#00B1)

Simple setting area
(Common memoryarea 2: 16#00A2 to
16#00A9)

General-purpose
status area
(Common memory
area2: 16#00AA to
16#00AF)

Optional

Optional(depending on statusof the test equipment)
16#9FFF* Output slave (Used，
subsequent area notused，32 points)* Input slave(Used，
subsequent area used，64
points)
16#009F* Output slave (not used，
subsequent area notused，0 points)* Input slave (Used，
subsequent area notused，32 points)
Master node number: 100
Slave operation setting
confirmation status: Return ofthe master output value.
Master specified area:
Return of the master output
value.
All zero (0)Table 139 – Output status
Test No.
Major test group
Test group
Test objects
Test procedure

V3-058Device level network function
Master in fixed setting mode
Output status
Start the EUT (fixed master), and then start the test equipment (fixed slave).
In the EUT, set the remote control for the test equipment to Remote Operation (1).
In the EUT, set the remote control for the test equipment to Remote Stop (0).
In the EUT, set the IO output for the test equipment upon slave operation instructions—disengagement of the master to Clear (0) (considering the case requiring the EUT torestart, wait for the EUT to join).
In the EUT, set the IO output for the test equipment upon slave operation instructions—disengagement of the master to Hold (1) (considering the case requiring the EUT torestart, wait for the EUT to join).
In the EUT, set the IO output for the test equipment upon slave operation instructions—remote control flag OFF to Clear (0) (considering the case requiring the EUT to restart,
wait for the EUT to join).
In the EUT, set the IO output for the test equipment upon slave operation instructions—remote control flag OFF to Hold (1) (considering the case requiring the EUT to restart,
wait for the EUT to join).
In the EUT, set the IO input for the test equipment upon slave operation instructions—remote control flag OFF to Clear (0) (considering the case requiring the EUT to restart,
wait for the EUT to join).

– 531 –JEM 1480:2023

Table 139 – Output status (continued)
Test procedure(continued)
Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameters(node)In the EUT, set the IO input for the test equipment upon slave operation instructions—remote control flag OFF to Hold (1) (considering the case requiring the EUT to restart,
wait for the EUT to join).
Check whether the specified slave type and master node number are correct in the
output status area of the EUT.
Check the common memory values to confirm whether the remote control area in the
output status area of the EUT is Remote Operation (1) at the time of test procedure b).
Check the common memory values to confirm whether the remote control area in the
output status area of the EUT is Remote Stop (0) at the time of test procedure c).
Check the common memory values to confirm whether the IO output upon slave
operation instructions—disengagement of the master in the output status area of the
EUT is Clear (0) at the time of test procedure d).
Check the common memory values to confirm whether the IO output upon slave
operation instructions—disengagement of the master in the output status area of the
EUT is Hold (1) at the time of test procedure e).
Check the common memory values to confirm whether the IO output upon slave
operation instructions—remote control flag OFF in the output status area of the EUT is
Clear (0) at the time of test procedure f).
Check the common memory values to confirm whether the IO output upon slave
operation instructions—remote control flag OFF in the output status area of the EUT is
Hold (1) at the time of test procedure g).
Check the common memory values to confirm whether the IO input upon slave
operation instructions—remote control flag OFF in the output status area of the EUT is
Clear (0) at the time of test procedure h).
Check the common memory values to confirm whether the IO input upon slave
operation instructions—remote control flag OFF in the output status area of the EUT is
Hold (1) at the time of test procedure i).
NNNO (when implementing the fixed master function.)R
N
N
EUT (Fixed master)
Node number
Token watchdog time
Allowable minimum frameinterval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
期待slave setting(#11)

Test equipment

Implementation class
Node number
Token watchdog time
Allowable minimum frameinterval time
Area 1 data top address
Area 1 data size
Area 2 data top address

100
(100)
(10)
256
256
1 024
1 024
Number of input points of theslave: 96
Number of output points ofthe slave: 32
7 (Fixed slave)
11
(50)
(10)
40
8
160

JEM 1480:2023– 532 –

Table 139 – Output status (continued)
Setting parameters(node)(continued)

Setting parameters(test data)

Test equipment(continued)

Master output(Output from the EUT to
the test equipment)

Area 2 data size
Number of input points ofthe slave
Number of output points ofthe slave
Output data
(Common memory area 1:
16#0128 to 16#012F)
Remote control area
(Common memory area 2:
16#04A0)

Specified slave type (1)(Common memory area 2:
16#04A1)

Specified slave type (2)(Common memory area 2:
16#04B1)

Simple setting area
(Common memory area 2:
16#04A2 to 16#04A9)

Slave output(Output from the test
equipment to the EUT)

Reserved area
(Common memory area 2:
16#04AA to 16#04AF)
Input data
(Common memory area 1:
16#0028 to 16#002F)
Slave status(Common memory area 2:
16#00A0)32
96
32
Optional

Depends on the test
procedure:* Test procedure b): D0: 1(Remote run)* Test procedure c): D0: 0(Remote stop)
16#9FFF* Output slave (Used，
subsequent area notused，32 points)* Input slave (Used，
subsequent area used，64
points)
16#009F* Output slave (not used，
subsequent area notused，0 points)* Input slave (Used，
subsequent area notused，32 points)
Master node number
instructions: 16#00 (default)
Slave operating instructions:
Depends on the test
procedure:* Test procedure d): D0: 0(IO output upondisengagement of themaster: Clear)* Test procedure e): D0: 1(IO output upondisengagement of themaster: Hold)* Test procedure f): D1: 0(IO output upon remotecontrol flag OFF: Clear)* Test procedure g): D1: 1(IO output upon remotecontrol flag OFF: Hold)* Test procedure h): D2: 0(IO input upon remotecontrol flag OFF: Clear)* Test procedure i): D2: 1(IO input upon remotecontrol flag OFF: Hold)
Master specified area: (noevaluation)(no evaluation)

Optional

Optional (depending on
status of the test equipment)– 533 –JEM 1480:2023

Table 139 – Output status (continued)
Setting parameters(test data)(continued)

Slave output(Output from the test
equipment to the EUT)
(continued)

Actual slave type (1)(Common memory area 2:
16#00A1)

Actual slave type (2)(Common memory area 2:
16#00B1)

Simple setting area
(Common memory area2:
16#00A2 to 16#00A9)

General-purpose statusarea(Common memory area2:
16#00AA to 16#00AF)c)

16#9FFF* Output slave (Used，
subsequent area notused，32 points)* Input slave (Used，
subsequent area used，64
points)
16#009F* Output slave (not used，
subsequent area notused，0 points)* Input slave (Used，
subsequent area notused，32 points)
Master node number: 100
Slave operation setting
confirmation status: Return ofthe master output value.
Master specified area: Return ofthe master output value.
All zero (0)Slaves in flexible setting mode Slaves in flexible setting mode are tested as in Table 140 throughTable 152.
Table 140 – New participation operation 1

Test No.
Major test group
Test group
Test objects
Test procedure
Evaluation criteria
Test
Class 1necessity
Class 2
identified
Class 3by theClass 4
EUT class
Class 5Class 6Class 7
Setting parameters(node)

V3-059Device level network function
Slave in flexible setting mode
New participation operation 1
Start the EUT (flexible slave).
Check the frames in the test equipment.
Confirm that the EUT transmits no frames.
N
N
N
N
N
R
N
EUT (Flexible slave)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Test equipment

―

1
(50)
(10)
0
To be calculated from thenumber of input points of theslave in the EUT0To be calculated from thenumber of input points andoutput points of the slave in
the EUTJEM 1480:2023– 534 –

Table 140 – New participation operation 1 (continued)
Setting parameters(test data)―

Table 141 – New participation operation 2
Test No.
Major test group
Test group
Test objects
Test procedure
Evaluation criteria
Test
Class 1necessity
Class 2
identified
Class 3by theClass 4
EUT class
Class 5Class 6Class 7
Setting parameters(node)

Setting parameters(test data)

V3-060Device level network function
Slave in flexible setting mode
New participation operation 2
Start the EUT (flexible slave).
Start the test equipment (controller), without activating the flexible master function.
Confirm that the EUT transmits no frames.
N
N
N
N
N
R
N
EUT (Flexible slave)
Node number
1
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top
0
address
Area 1 data size
To be calculated from thenumber of input points of theslave in the EUT
Area 2 data top
0
address
Area 2 data size
To be calculated from thenumbers of input and output
points of the slave in the EUT
Test equipment
Implementation class
3 (Controller)
Node number
85
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top
0
address
Area 1 data size
0
Area 2 data top
0
address
Area 2 data size0―

– 535 –JEM 1480:2023

Table 142 – New participation operation 3
Test No.
Major test group
Test group
Test objects
Test procedure
Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameters(node)

V3-061
Device level network function
Slave in flexible setting mode
New participation operation 3
Start the EUT (flexible slave).
Start the test equipment (flexible master linked with the EUT)
Confirm that, after transmitting solicitation frames from the test equipment, the EUTtransmits participation request frames.
Confirm that the EUT joins the network.
Confirm that the slave status value in the input status area of the EUT is Running (3).
N
N
N
N
N
R
N
EUT
Node number
1(Flexible slave)
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top
0
address
Area 1 data size
To be calculated from thenumber of input points of theslave in the EUT
Area 2 data top
0
address
Area 2 data size
To be calculated from thenumbers of input and output
points of the slave in the EUT
Test equipment
Implementation class4 (Flexible master)
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time
Area 1 data top
256
address
Area 1 data size
256
Area 2 data top
1 024
address
Area 2 data size
1 024
IO allocation setting
1(number of control
slaves)IO allocation setting
Slave node number:(slave setting)
16#8001(Flexible setting mode, Node
number: 1)
Input data address: 16#0000(Area 1，address: 0)
Input data size: To be
calculated from the numberof input points of the slave in
the EUTJEM 1480:2023– 536 –

Table 142 – New participation operation 3 (continued)
Setting parameters(node)(continued)

Test equipment(continued)

Setting parameters(test data)―

IO allocation setting(slave setting)(continued)

output data address:
Depends on the number of
output points of the slave in
the EUT* 0 point: 16#0000(Area 1, address: 0)* 1 point or more: 16#0100(Area 1, address: 256)
output data size: To be
calculated from the numberof the output points of theslave in the EUT
Input status address:
16#8000(Area 2, address: 0)
Output status address:
16#8400(Area 2, address: 1 024)

Table 143 – New participation operation 4
Test No.
Major test group
Test group
Test objects
Test procedure
Evaluation criteria
Test
Class 1necessity
Class 2
identified
Class 3by theClass 4
EUT class
Class 5Class 6Class 7
Setting parameters(node)

V3-062
Device level network function
Slave in flexible setting mode
New participation operation 4
Start the EUT (flexible slave).
Start the test equipment (flexible master not linked with the EUT [flexible slave]).
Confirm that the EUT transmits no frames.
N
N
N
N
N
R
N
EUT
Node number
1(Flexible slave)
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top
0
address
Area 1 data size
To be calculated from thenumber of input points of theslave in the EUT
Area 2 data top
0
address
Area 2 data size
To be calculated from thenumbers of input and output
points of the slave in the EUT
Test equipment
Implementation class4 (Flexible master)
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time– 537 –JEM 1480:2023

Table 143 – New participation operation 4 (continued)
Setting parameters(node)(continued)

Test equipment(continued)

Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

256
256
1 024
1 024
1

Slave node number:
16#8002(Flexible setting mode，
Node number: 2)
Input data address: 16#0000(Area 1, address: 0)
Input data size: To be
calculated from the numberof input points of the slave in
the EUT
output data address:
Depends on the number of
output points of the slave in
the EUT* 0 point: 16#0000(Area 1, address: 0)* 1 point or more: 16#0100(Area 1, address: 256)
output data size: To be
calculated from the numberof the output points of theslave in the EUT
Input status address:
16#8000(Area 2, address: 0)
Output status address:
16#8400(Area 2, address: 1 024)

Setting parameters(test data)－

Table 144 – Participation to operating network 1
Test No.
Major test group
Test group
Test objects
Test procedure

Evaluation criteria
Test
Class 1necessity
Class 2
identified
Class 3by theClass 4
EUT class
Class 5Class 6Class 7

V3-063
Device level network function
Slave in flexible setting mode
Participation to operating network 1
Start the dummy node (controller). After its operation becomes stable, start the test
equipment (controller).
Start the EUT (flexible slave).
Confirm that the EUT transmits no frames.
N
N
N
N
N
R
N

JEM 1480:2023– 538 –

Table 144 – Participation to operating network 1 (continued)
Setting parameters(node)

EUT(Flexible slave)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Test equipment

Dummy node

Setting parameters(test data)

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
To be calculated from thenumber of input points of theslave in the EUT0To be calculated from thenumbers of input and output
points of the slave in the EUT
3 (Controller)
100
50
10
256
4
1 024
16
3 (Controller)
2
50
10
0
0
0
0

－

Table 145 – Participation to operating network 2
Test No.
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

V3-064
Device level network function
Slave in flexible setting mode
Participation to operating network 2
Start the dummy node (controller). After its operation becomes stable, start the test
equipment (flexible master linked with the EUT).
Start the EUT (flexible slave).
Confirm that, after transmitting solicitation frames from the test equipment, the EUTtransmits participation request frames.
Confirm that the EUT joins the network.
Confirm that the slave status value in the input status area of the EUT is Running (3).

– 539 –JEM 1480:2023

Table 145 – Participation to operating network 2 (continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameters(node)

N
N
N
N
N
R
N
EUT
(Flexible slave)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Test equipment

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

1
(50)
(10)
0
To be calculated from thenumber of input points of theslave in the EUT0To be calculated from thenumbers of input and output
points of the slave in the EUT
4 (Flexible master)
100
(100)
(10)
256
256
1 024
1 024
1

Slave node number:
16#8001(Flexible setting mode，
Node number: 1)
Input data address: 16#0000(Area 1, address: 0)
Input data size: To be
calculated from the numberof input points of the slave in
the EUT
output data address:
Depends on the number of
output points of the slave in
the EUT* 0 point: 16#0000(Area 1, address: 0)* 1 point or more: 16#0100(Area 1, address: 256)
output data size: To be
calculated from the numberof the output points of theslave in the EUT
Input status address:
16#8000(Area 2, address: 0)
Output status address:
16#8400(Area 2, address: 1 024)

JEM 1480:2023– 540 –

Table 145 – Participation to operating network 2 (continued)
Setting parameters(node)(continued)

Setting parameters(test data)

Dummy node

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

3 (Controller)
2
50
10
0
0
0
0

－

Table 146 – Participation to operating network 3
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria
Test
Class 1necessity
Class 2
identified
Class 3by theClass 4
EUT class
Class 5Class 6Class 7
Setting parameter(node)

V3-065
Device level network function
Slave in flexible setting mode
Participation to operating network 3
Start the dummy node (controller). After the dummy node is in stable operation, start
the test equipment (flexible master which does not correspond to the EUT).
Start the EUT (flexible slave).
Confirm that the EUT does not send any frame.
N
N
N
N
N
R
N
Equipment under test (EUT)
Node number
1(flexible slave)
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top
0
address
Area 1 data size
Calculated from the number of
input slave points in the EUT.
Area 2 data top
0
address
Area 2 data size
Calculated from the number of
input slave points and output
slave points in the EUT.
Test equipment
Implementation class4 (Flexible master)
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time
Area 1 data top
256
address
Area 1 data size
256
Area 2 data top
1 024
address

– 541 –JEM 1480:2023

Table 146 – Participation to operating network 3 (continued)
Setting parameter(node)(continued)

Test equipment(continued)

Dummy node

Setting parameter(Test data)

Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

1 024
1

Slave node number = 16#8002(flexible setting mode, node
number = 2)
Input data address = 16#0000(Area 1, address = 0)
Input data size = Calculated
from the number of input slave
points in the EUT.
Output data address =depends on the number of
output slave points in the EUT.
* 0 point: 16#0000 (Area 1,
address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = Calculated
from the number of output
slave points in the EUT.
Input status address =16#8000(Area2, address = 0)
Output status address =16#8400(Area2, address = 1 024)3(controller)
3
50
10
0
0
0
0

－

Table 147 – Disengagement/re-join of flexible master
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

V3-066
Device level network function
Slave in flexible setting mode
Disengagement/re-join of flexible masterStart the dummy node (controller). After the dummy node is in stable operation, start
the test equipment (flexible master corresponding to the EUT).
Start the EUT (flexible slave).
Disengage the test equipment from the network (Stop sending the token frame.)Re-join the test equipment to the network.
Confirm that the EUT does not disengage from the network by the test procedure c).
Confirm that the EUT does not disengage from the network by the test procedure d).

JEM 1480:2023– 542 –

Table 147 – Disengagement/re-join of flexible master (continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

N
N
N
N
N
R
N
Equipment under test (EUT)(flexible slave)

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

Test equipment(flexible master)

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

1
(50)
(10)
0
Calculated from the number of
input slave points in the EUT.
0
Calculated from the number of
input slave points and output
slave points in the EUT.
4 (flexible master)
100
50
10
256
256
1 024
1 024
1

Slave node number = 16#8001(flexible setting mode，node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = Calculated
from the number of input slave
points in the EUT.
Output data address =Depends on the number of
output slave points in the EUT.
* 0 point: 16#0000 (Area 1,
address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = Calculated
from the number of output
slave points in the EUT.
Input status address =16#8000(Area2, address = 0)
Output status address =16#8400(Area2, address = 1 024)

– 543 –JEM 1480:2023

Table 147 – Disengagement/re-join of flexible master (continued)
Setting parameter(node)(continued)

Dummy node(controller)

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

3 (controller)
2
50
10
0
0
0
0

－

Setting parameter(Test data)

Table 148 – Solicitation frame during link establishment
Test number
Major test group
Test group
Test objects
Evaluation criteria

Evaluation criteria

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)
Test
necessity
identified
by theEUT class

V3-067
Device level network function
Slave in flexible setting mode
Solicitation frame during link establishment
Start the dummy node (controller). After the dummy node is in stable operation, start
the test equipment (flexible master corresponding to the EUT)
Start the EUT (flexible slave).
Transmit a solicitation frame same setting value from the test equipment (samemaster).
Transmit a solicitation frame with a different setting value, from the test equipment(same master).
Transmit a solicitation frame with another different setting value, from the test
equipment (different master).
Confirm the EUT does not disengage from the network by the test procedure c).
Confirm the EUT disengages from the network by the test procedure d), and joins
based on the setting value in the solicitation frame.
Confirm the EUT does not disengage from the network by the test procedure e).
N
N
N
N
N
R
N
Equipment under test (EUT)
Node number
1(flexible slave)
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address 0
Area 1 data size
Calculated from the number of
input slave points in the EUT.
Area 2 data top address 0
Area 2 data size
Calculated from the number of
input slave points and output
slave points in the EUT.

JEM 1480:2023– 544 –

Table 148 – Solicitation frame during link establishment (continued)
Setting parameter(node)(continued)

Test equipment

Dummy node

Setting parameter(Test data)

Solicitation frame(the same setting value fromthe same master)

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node address of source
side
TCD
Data size
Contents of data

4 (flexible master)
100
(100)
(10)
256
256
1 024
1 024
1

Slave node number = 16#8001(flexible setting mode node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = Calculated
from the number of input slave
points in the EUT.
Output data address =Depends on the number of
output slave points in the EUT.
* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = Calculated
from the number of output
slave points in the EUT.
Input status address =16#8000(Area2, address = 0)
Output status address =16#8400(Area2, address = 1 024)
3 (controller)
2
50
10
0
0
0
0
100
65 017 (Solicitation)
16
Slave node number = 16#8001(flexible setting mode node
number = 1)
Input data address=16#0000(Area 1, address = 0)

– 545 –JEM 1480:2023

Table 148 – Solicitation frame during link establishment (continued)
Setting parameter(Test data)(continued)

Solicitation frame (the samesetting value from the same
master)(continued)

Contents of data(continued)

Solicitation frame(the different setting value
from the same master)

Node address of source
side
TCD
Data size

Solicitation frame(the other different setting
value from the different
master)

Node address of source
side
TCD
Data size

Input data size = Calculated
from the number of input slave
points in the EUT.
Output data address =Depends on the number of
output slave points in the EUT.
* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = Calculated
from the number of output
slave points in the EUT.
Input status address =16#8000(Area2, address = 0)
Output status address =16#8400(Area2, address = 1 024)
Lock ID = 100
100
65 017 (Solicitation)
16
Slave node number = 16#8001(flexible setting mode node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = Calculated
from the number of input slave
points in the EUT.
Output data address =Depends on the number of
output slave points in the EUT.
* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = Calculated
from the number of output
slave points in the EUT.
Input status address =16#8010(Area2, address = 16)
Output status address =16#8400(Area2, address = 1 024)
Lock ID = 1002
65 017 (Solicitation)
16
Slave node number = 16#8001(flexible setting mode，node
number = 1)
Input data address = 16#0000(Area 1, address = 0)

JEM 1480:2023– 546 –

Table 148 – Solicitation frame during link establishment (continued)
Setting parameter(Test data)(continued)

Solicitation frame(the other different setting
value from the different
master)(continued)

Data size(continued)

Input data size = Calculated
from the number of input slave
points in the EUT.
Output data address =Depends on the number of
output slave points in the EUT.
* 0 point: 16#0000(Area 1, address=0)* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = Calculated
from the number of output
slave points in the EUT.
Input status address =16#8000(Area2, address = 0)
Output status address =16#8480(Area2, address = 1 152)
Lock ID = 2

Table 149 – Slave status, actual slave type and simple setting confirmation area
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V3-068Device level network function
Slave in flexible setting mode
Slave status, actual slave type and simple setting confirmation area
Start the EUT (flexible slave) and the test equipment (flexible master corresponding to
the EUT). Then, start the dummy node (controller).
Disengage the test equipment from the network (Stop sending the token frame).
Re-join the test equipment to the network.
Disengage the dummy node from the network (Stop sending token frame).
Confirm the actual slave type and simple setting confirmation area in the EUT input
status area using the common memory value.
Confirm using the common memory value that the slave status value in the EUT input
status area is set to “No master (4)” by the test procedure b).
Confirm using the common memory value that the slave status value in the EUT input
status area is set to other than “No master (4)” by the test procedure c).
Confirm using the common memory value that the slave status value in the EUT input
status area is set to other than “No master (4)” by the test procedure d).
N
N
N
N
N
R
N
Equipment under test (EUT)
Node number
1(flexible slave)
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address 0

– 547 –JEM 1480:2023

Table 149 – Slave status, actual slave type and simple setting confirmation area
(continued)
Setting parameter(node)(continued)

Equipment under test (EUT)(flexible slave)(continued)

Area 1 data size

Test equipment

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Dummy node

Area 2 data top address
Area 2 data size

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size

Calculated from the number of
input slave points in the EUT.
0
Calculated from the number of
input slave points and output
slave points in the EUT.
4 (flexible master)
100
(100)
(10)
256
256
1 024
1 024
1

Slave node number = 16#8001(flexible setting mode node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = Calculated
from the number of input slave
points in the EUT.
Output data address =Depends on the number of
output slave points in the EUT.
* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = Calculated
from the number of output
slave points in the EUT.
Input status address =16#8000(Area2, address = 0)
Output status address =16#8400(Area2, address = 1 024)
3 (controller)
2
50
10
0
0
0
0

JEM 1480:2023– 548 –

Table 149 – Slave status, actual slave type and simple setting confirmation area
(continued)
Setting parameter(Test data)

Master output(Output from test equipment
to EUT)

Slave output(Output from EUT to test
equipment)

Output data
(Common memory area
1 : 16#100~)
Remote control area
(Common memory area
2 : 16#0400)
Specified slave type(Common memory area
2 : 16#0401 + 16 × N)
Note: N the range
depending on thenumber of input/output
points on the EUT
Simple setting area
(Common memory area
2 : 16#0402 to
16#0409)
Reserved area
(Common memory area
2 : 16#040A to
16#040F)
Input data
(Common memory area
1 : 16#0000 ~)Slave status(Common memory area
2 : 16#0000)
Actual slave type(Common memory area
2 : 16#0001 + 16 × N)
Note: N = the range
depending on thenumber of input/output
points on the EUT
Simple setting area
(Common memory area
2 : 16#0002 to
16#0009)
General-purpose statusarea(Common memory area
2 : 16#000A to
16#000F)All 0

16#0001 (Remote operation)

Calculated from the number of
input slave points and output
slave points in the EUT.

Master node number
instructions = 16#00 (default)
Slave operating instructions =16#0000
Master specified area = All 0
All 0

no evaluation

Depends on the evaluation
criteria.
Calculated from the number of
input slave points and output
slave points in the EUT.

Master node number = 100
Slave operation setting
confirmation status = 16#0000
Master specified area = All 0
no evaluation

– 549 –JEM 1480:2023

Table 150 – IO output upon disengagement of the master
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(node)

V3-069Device level network function
Slave in flexible setting mode
IO output upon disengagement of the masterStart the EUT (flexible slave) and the test equipment (flexible master). Then, start thedummy node (controller).
Set the output data for the EUT to a value other than “zero(0)” using the test
equipment.
Set the value of IO output upon disengagement of the master at the slave operating
instructions within the output status area for the EUT to “clear(0)” on the test
equipment.
Disengage the test equipment from the network. (Stop sending the token frame.)Re-join the test equipment to the network.
Set the value of IO output upon disengagement of the master at the slave operating
instructions within the output status area for the EUT to “hold(1)” on the test equipment.
Disengage the test equipment from the network. (Stop sending the token frame.)
Confirm on the EUT that the output data in the EUT is a value other than zero (0) by
the test procedure b).
Confirm using the common memory value that the value of IO output upondisengagement of the master at the slave operation setting confirmation status within
the input status area in the EUT becomes “clear(0)” by the test procedure c).
Confirm on the EUT that the output data in the EUT is zero (0) by the test procedure d).
Confirm on the EUT that the output data in the EUT is a value other than zero (0) by
the test procedure e).
Confirm using the common memory value that the value of IO output upondisengagement of the master at the slave operation setting confirmation status within
the input status area in the EUT becomes “hold(1)” by the test procedure f).
Confirm on the EUT that the output data in the EUT is a value other than zero (0) by
the test procedure g).
N
N
N
N
N
O (in case that the output slave points are more than 1 point.)
N
Equipment under test (EUT)
Node number
1(flexible slave)
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address 0
Area 1 data size
Calculated from the number of
input slave points in the EUT.
Area 2 data top address 0
Area 2 data size
Calculated from the number of
input slave points and output
slave points in the EUT.
Test equipment
Implementation class4 (flexible master)
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time

JEM 1480:2023– 550 –

Table 150 – IO output upon disengagement of the master (continued)
Setting parameter(Node)(continued)

Test equipment(continued)

Dummy node

Setting parameter(Test data)

Master output(Output from test
equipment to EUT )Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
IO allocation setting(number of control slaves)
IO allocation setting (slave
setting)

Implementation class
Node number
Token watchdog time
Allowable minimum frameinterval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Output data
(Common memory area 1 :16#100~)
Remote control area
(Common memory area 2 :16#0400)
Specified slave type(Common memory area 2 :16#0401 + 16 × N)
Note: N = the range
depending on the numberof input/output points on
the EUT.

256
256
1 024
1 024
1
Slave node number = 16#8001(flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = Calculated
from the number of input slave
points in the EUT.
Output data address =Depends on the number of
output slave points in the EUT.
* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = Calculated
from the number of output
slave points in the EUT.
Input status address =16#8000(Area2, address = 0)
Output status address =16#8400(Area2, address = 1 024)
3 (controller)
2
50
10
0
0
0
0
Any value except zero (0)16#0001 (Remote run)Calculated from the number of
input slave points and output
slave points in the EUT.

– 551 –JEM 1480:2023

Table 150 – IO output upon disengagement of the master (continued)
Setting parameter(Test data)(continued)

Master output(Output from test
equipment to EUT)
(continued)

Slave output(Output from EUT to test
equipment)

Simple setting area
(Common memory area 2 :16#0402 to 16#0409)

Reserved area
(Common memory area 2 :16#040A to 16#040F)
Input data
(Common memory area 1 :16#0000~)
Slave status(Common memory area 2 :16#0000)
Actual slave type(Common memory area 2 :16#0001 + 16 × N)
Note: N = the range
depending on the numberof input/output points on
the EUT.
Simple setting area
(Common memory area 2 :16#0002 to 16#0009)

General-purpose statusarea(Common memory area 2 :16#000A to 16#000F)

Master node number
instructions = 16#00 (default)
Slave operating instructions =Depends on the test
procedure.
* Test procedure c): 16#0000* Test procedure f): 16#0001
Master specified area = All 0
All 0(no evaluation)(no evaluation)(no evaluation)

Master node number = (noevaluation)
Slave operation setting
confirmation status = Depends
on the evaluation criteria.
* evaluation criteria b):
16#0000* evaluation criteria e):
16#0001
Master specified area = (noevaluation)(no evaluation)

JEM 1480:2023– 552 –

Table 151 – IO output upon remote control flag OFF
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)

V3-070Device level network function
Slave in flexible setting mode
IO output upon remote control flag OFF
Start the EUT (flexible slave) and the test equipment (flexible master corresponding to
the EUT).
Set the remote control flag for the EUT to the “remote run (1)” using the test
equipment.
Set the output data for the EUT to a value other than zero (0) using the test equipment.
Set the IO output value upon remote control flag OFF of the slave operating
instructions in the output status area for the EUT to “clear (0)” using the test
equipment.
Set the remote control flag for the EUT to “remote stop (0)” using the test equipment.
Set the remote control flag for the EUT to “remote run (1)” using the test equipment.
Set the IO output value upon remote control flag OFF of the slave operating
instructions in the output status area for the EUT to “hold (1)” using the test equipment.
Set the remote control flag for the EUT to “remote stop (0)” using the test equipment.
Confirm on the EUT that the output data in the EUT is a value other than zero (0) by
the test procedure c).
Confirm using the common memory value that the IO output value upon remote control
flag OFF of the slave operation setting confirmation status in the input status area of
the EUT is “cleared (0)” by the test procedure d).
Confirm on the EUT that the output data in the EUT is zero (0) by the test procedure e).
Confirm on the EUT that the output data in the EUT is a value other than zero (0) by
the test procedure f).
Confirm using the common memory value that the IO output value upon remote control
flag OFF of the slave operation setting confirmation status in the input status area of
the EUT is “held (1)” by the test procedure g).
Confirm on the EUT that the output data in the EUT is a value other than zero (0) by
the test procedure h).
N
N
N
N
N
O (in case that the output slave points are more than 1 point.)
N
Equipment under test (EUT)
Node number
1(flexible slave)
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address 0
Area 1 data size
Calculated from the number of
input slave points in the EUT.
Area 2 data top address 0
Area 2 data size
Calculated from the number of
input slave points and output
slave points in the EUT.
Test equipment
Implementation class4 (flexible master)
Node number
100
Token watchdog time(100)

– 553 –JEM 1480:2023

Table 151 – IO output upon remote control flag OFF (continued)
Setting parameter(Node)(continued)

Setting parameter(Test data)

Test equipment(continued)

Master output(Output from test
equipment to EUT)

Allowable minimum frameinterval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
IO allocation setting(number of control slaves)
IO allocation setting (slave
setting)

Output data
(Common memory area 1 :16#100~)
Remote control area
(Common memory area 2 :16#0400)

Specified slave type(Common memory area 2 :16#0401 + 16 × N)
Note: N = the range
depending on the numberof input/output points on
the EUT

(10)
256
256
1 024
1 024
1
Slave node number = 16#8001(flexible setting mode, node
number=1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = Calculated
from the number of input slave
points in the EUT.
Output data address =Depends on the number of
output slave points in the EUT.
* 0 point: 6#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = Calculated
from the number of output
slave points in the EUT.
Input status address =16#8000(Area2, address = 0)
Output status address =16#8400(Area2, address = 1 024)
Any value except zero (0)Depended on the test
procedure.
* Test procedure b), f) :16#0001 (Remote run)* Test procedure e), h) :16#0000 (Remote stop)
Calculated from the number of
input slave points and output
slave points in the EUT.

JEM 1480:2023– 554 –

Table 151 – IO output upon remote control flag OFF (continued)
Setting parameter(Test data)(continued)

Master output(Output from test
equipment to EUT)
(continued)

Slave output(Output from EUT to test
equipment)

Simple setting area
(Common memory area 2 :16#0402 to 16#0409)

Reserved area
(Common memory area 2 :16#040A to 16#040F)
Input data
(Common memory area 1 :16#0000~)
Slave status(Common memory area 2 :16#0000)
Actual slave type(Common memory area 2 :16#0001＋16×N)
Note: N = the range
depending on the numberof input/output points on
the EUT.
Simple setting area
(Common memory area 2 :16#0002 to 16#0009)

General-purpose statusarea(Common memory area 2 :16#000A to 16#000F)

Master node number
instructions = 16#00 (default)
Slave operating instructions =Depends on the test
procedure.
* Test procedure d): 16#0000* Test procedure g): 16#0002
Master specified area = All 0
All 0(no evaluation)(no evaluation)(no evaluation)

Master node number = (noevaluation)
Slave operation setting
confirmation status = Depends
on the evaluation criteria.
* evaluation criteria b):
16#0000* evaluation criteria e):
16#0002
Master specified area = (noevaluation)(no evaluation)

– 555 –JEM 1480:2023

Table 152 – IO input upon remote control flag OFF
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)

V3-071
Device level network function
Slave in flexible setting mode
IO input upon remote control flag OFF
Start the EUT (flexible slave) and the test equipment (flexible master corresponding to
the EUT).
Set the remote control flag for the EUT to “remote run (1)” using the test equipment.
Set the input data in the EUT to any value (a value for the valid IO input).
Set the IO input value upon remote control flag OFF of the slave operating instructionsin the output status area for the EUT to “clear (0)” using the test equipment.
Set the remote control flag for the EUT to “remote stop (0)” using the test equipment.
Set the remote control flag for the EUT to “remote run (1)” using the test equipment.
Set the IO input value upon remote control flag OFF of the slave operating instructionsin the output status area for the EUT to “hold (1)” using the test equipment.
Set the remote control flag for the EUT to “remote stop(0)” using the test equipment.
Confirm using the common memory value that the IO input value upon remote control
flag OFF of the slave operation setting confirmation status in the EUT input status area
is “cleared (0)” by the test procedure d).
Confirm on the EUT that the input data in the EUT is cleared (not the value for the valid
IO input) by the test procedure e).
Confirm on the EUT that the input data in the EUT is the value specified in the test
procedure c) by the test procedure f).
Confirm using the common memory value that the IO input value upon remote control
flag OFF of the slave operation setting confirmation status in the EUT input status area
is “cleared (0)” by the test procedure d).
Confirm on the EUT that the input data in the EUT is a value specified in the test
procedure c) by the test procedure h).
N
N
N
N
N
O (in case that the input slave points are more than 1 point.)
N
Equipment under test
Node number
1(EUT)
Token watchdog time
(50)
(flexible slave)
Allowable minimum frame(10)
interval time
Area 1 data top address
0
Area 1 data size
Calculated from the number of
input slave points in the EUT.
Area 2 data top address
0
Area 2 data size
Calculated from the number of
input slave points and output
slave points in the EUT.
Test equipment
Implementation class4 (flexible master)
Node number
100
Token watchdog time(100)
Allowable minimum frame(10)
interval time

JEM 1480:2023– 556 –

Table 152 – IO input upon remote control flag OFF (continued)
Setting parameter(Node)(continued)

Setting parameter(Test data)

Test equipment(continued)

Master output(Output from test
equipment to EUT)

Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
IO allocation setting(number of control slaves)
IO allocation setting (slave
setting)

Output data
(Common memory area 1:
16#100 and above)
Remote control area
(Common memory area 2:
16#0400)

Specified slave type(Common memory area 2 :16#0401 + 16 × N)
Note: N = the range
depending on the numberof input/output points on
the EUT
Simple setting area
(Common memory area 2 :16#0402 to 16#0409)

256
256
1 024
1 024
1
Slave node number = 16#8001(flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = Calculated
from the number of input slave
points in the EUT.
Output data address =Depends on the number of
output slave points in the EUT.
* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size = Calculated
from the number of output
slave points in the EUT.
Input status address =16#8000(Area2, address = 0)
Output status address =16#8400(Area2, address = 1 024)
Any value except zero (0)Depends on the test
procedure.
* Test procedure b) and f):
16#0001 (Remote run)* Test procedure e) and h):
16#0000 (Remote stop)
Calculated from the number of
input slave points and output
slave points in the EUT.

Master node number
instructions = 16#00 (default)
Slave operating instructions =Depends on the test
procedure.
* Test procedure d): 16#0000* Test procedure g): 16#0004
Master specified area = All 0

– 557 –JEM 1480:2023

Table 152 – IO input upon remote control flag OFF (continued)
Setting parameter(Test data)(continued)

Master output(Output from test
equipment to EUT)
(continued)
Slave output(Output from EUT to test
equipment)

Reserved area
(Common memory area 2:
16#040A to 16#040F)

All 0

Input data
(Common memory area 1:
16#0000 and above)

Depends on the evaluation
criteria.
* evaluation criteria c) and e):a value when IO input isvalid.
* evaluation criteria b): a valueof “clear”.
(no evaluation)

Slave status(Common memory area 2:
16#0000)
Actual slave type(Common memory area 2:
16#0001 + 16 × N)
Note: N = the range
depending on the numberof input/output points on
the EUT.
Simple setting area
(Common memory area 2:
16#0002 to 16#0009)

General-purpose statusarea(Common memory area 2:
16#000A to 16#000F)d)(no evaluation)

Master node number = (noevaluation)
Slave operation setting
confirmation status = Depends
on the evaluation criteria.
* evaluation criteria b):
16#0000* evaluation criteria e):
16#0004
Master specified area = (noevaluation)(no evaluation)

Master in flexible setting mode: The master in flexible setting mode is tested as described inTables 153 through 159.
Table 153 – Joining operation 1

Test number
Major test group
Test group
Test objects
Test procedure

Evaluation
criteria

Pattern1
Pattern2

V3-072
Device level network function
Master in flexible setting mode
Joining operation 1
Start the EUT (flexible master).
Check the frame using the test equipment.
Test the following two patterns using a setting value of Pattern 1 and Pattern 2,
respectively.
Confirm that the EUT transmits one solicitation frame (1 200 ± 2) ms after sending thetrigger frame.
Confirm that the EUT transmits two solicitation frames (1 200 ± 2) ms after sending thetrigger frame, and that the transmission interval of the solicitation frames is (5 ± 2) ms.

JEM 1480:2023– 558 –

Table 153 – Joining operation 1 (continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)

Setting parameter(Test data)NN
O (when implementing the flexible master function.)
R
N
N
N
Equipment
Pattern 1
Node number
under test
Token watchdog time
(EUT)
Allowable minimum(flexible
frame interval time
master)Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Pattern 2
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Test equipment
IO allocation
Pattern 1
Number of control
setting (EUT)slavesSlave setting (N = 0 to
9)Pattern 2

Number of control
slavesSlave setting(N = 0
through 99)

100
(50)
(10)
256
40
1 024
160
254
(50)
(10)
256
200
2 048
1 600
NA
10
Slave node number = 16#8001 +N(flexible setting mode, node
number = N + 1)
Input data address = 16#0000 +(4 × N)(Area 1, address = 0 + 4 × N)
Input data size = 4
Output data address = 16#0100+ (4 × N)(Area 1, address = 256 + 4 × N)
Output data size = 4
Input status address =16#8000 +(16×N)(Area2, address = 0 + 16×N)
Output status address =16#8400 + (16 × N)
(Area2, address =1 024 + 16 ×N)
100
Slave node number = 16#8063 +N(flexible setting mode, node
number = N + 99)
Input data address = 16#0000 +(2 × N)(Area 1, address = 0 + 2 × N)

– 559 –JEM 1480:2023

Table 153 – Joining operation 1 (continued)
Setting parameter(Test data)(continued)

IO allocation
setting (EUT)(continued)

Pattern 2(continued)

Slave setting (N = 0
through 99)(continued)

Solicitation
frame

Pattern 1

Node address ofsource side (SNA)TCD
Data size
Contents of data (N =0 through 9)

Pattern 2(1st frame)

Node address ofsource side (SNA)TCD
Data size
Contents of data (N =0 through 63)

Input data size=2
Output data address = 16#0100+ (2 × N)(Area 1, address = 256 + 2 × N)
Output data size = 2
Input status address = 16#8000+ (16 × N)
(Area2, address = 0 + 16 × N)
Output status address =16#8800 + (16 × N)
(Area2, address = 2 048 + 16 ×N)
100
65 017 (Solicitation)
160
Slave node number = 16#8001 +N(flexible setting mode, node
number = N + 1)
Input data address = 16#0000 +(4 × N)(Area 1, address = 0 + 4 × N)
Input data size = 4
Output data address = 16#0100+ (4 × N)(Area 1, address = 256 + 4 × N)
Output data size = 4
Input status address = 16#8000+ (16 × N)
(Area2, address = 0 + 16 × N)
Output status address =16#8400 + (16 × N)
(Area2, address = 1 024 + 16 ×
N)
Lock ID = 100
254
65 017 (Solicitation)
1 024
Slave node number = 16#8063 +N(flexible setting mode, node
number = N + 99)
Input data address = 16#0000 +(2 × N)(Area 1, address = 0 + 2 × N)
Input data size = 2
Output data address = 16#0100+ (2 × N)(Area 1, address = 256 + 2×N)
Output data size = 2
Input status address = 16#8000+ (16 × N)
(Area2, address = 0 + 16 × N)

JEM 1480:2023– 560 –

Table 153 – Joining operation 1 (continued)
Setting parameter(Test data)(continued)

Solicitation
frame(continued)

Pattern 2(1st frame)(continued)

Contents of data (N =0 through 63)(continued)

Pattern 2(2nd frame)

Node address ofsource side (SNA)TCD
Data size
Contents of data (N =64 through 99)

Output status address =16#8800 + (16 × N)
(Area2, address = 2 048 + 16 ×
N)
Lock ID = 254
254
65 017 (Solicitation)
576
Slave node number = 16#8063+N(flexible setting mode, node
number = N + 99)
Input data address = 16#0000 +(2 × N)(Area 1, address = 0 + 2 × N)
Input data size = 2
Output data address = 16#0100+ (2 × N)(Area 1, address = 256 + 2 × N)
Output data size = 2
Input status address = 16#8000+ (16 × N)
(Area2, address = 0 + 16 × N)
Output status address =16#8800 + (16 × N)
(Area2, address = 2 048 + 16 ×
N)
Lock ID = 254

Table 154 – Joining operation 2
Test number
Major test group
Test group
Test objects
Test procedure
Evaluation
criteria

Pattern1
Pattern2

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

V3-073
Device level network function
Master in flexible setting mode
Joining operation 2
Start the test equipment (controller) and the EUT (flexible master).
Conduct tests using two setting patterns: Pattern 1 and Pattern 2, respectively.
Confirm that the EUT joins in the network.
Confirm that the EUT transmits one solicitation frame.
Confirm that the solicitation frame transmission cycle is more than 7200 ms.
Confirm that the EUT joins in the network.
Confirm that the EUT transmits the 1st solicitation frame and the 2nd solicitation frame
alternately.
Confirm that the solicitation frame transmission cycle is more than 7200 ms.
N
N
O (when implementing the flexible master function.)RNNN

– 561 –JEM 1480:2023

Table 154 – Joining operation 2 (continued)
Setting parameter(Node)

Equipment
under test
(EUT)
(flexible
master)Pattern 1

Pattern 2

Test equipment

Setting parameter(Test data)

IO allocation
setting(EUT)

Pattern 1

Pattern 2

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Number of control
slavesSlave setting (N = 0
through 9)

Number of control
slavesSlave setting (N = 0
through 99)

100
(50)
(10)
256
40
1 024
160
254
(50)
(10)
256
200
2 048
1 600
3 (controller)
85
50
10
0
0
0
0
10
Slave node number = 16#8001+N(flexible setting mode, node
number = N + 1)
Input data address = 16#0000+ (4 × N)(Area 1, address = 0 + 4 × N)
Input data size = 4
Output data address =16#0100 + (4 × N)
(Area 1, address = 256 + 4 ×
N)
Output data size = 4
Input status address =16#8000 + (16 × N)
(Area2, address = 0 + 16 × N)
Output status address =16#8400 + (16 × N)
(Area2, address = 1 024 + 16
× N)
100
Slave node number = 16#8063+N(flexible setting mode, node
number = N + 99)

JEM 1480:2023– 562 –

Table 154 – Joining operation 2 (continued)
Setting parameter(Test data)(continued)

IO allocation
setting (EUT)(continued)

Pattern 2(continued)

Slave setting(N = 0
through 99)(continued)

Solicitation
frame

Pattern 1

Node address of sourceside (SNA)TCD
Data size
Contents of data(N = 0
through 9)

Pattern 2(1st frame)

Node address of sourceside (SNA)TCD
Data size
Contents of data (N = 0
through 63)

Input data address = 16#0000+ (2 × N)(Area 1, address = 0 + 2 × N)
Input data size = 2
Output data address =16#0100 + (2 × N)
(Area 1, address = 256 + 2 ×N)
Output data size = 2
Input status address =16#8000 + (16 × N)
(Area2, address = 0 + 16 × N)
Output status address =16#8800 + (16 × N)
(Area2, address = 2 048 + 16
× N)
100
65 017 (Solicitation)
160
Slave node number = 16#8001+N(flexible setting mode, node
number = N + 1)
Input data address = 16#0000+ (4 × N)(Area 1, address = 0 + 4 × N)
Input data size = 4
Output data address =16#0100 + (4 × N)
(Area 1, address = 256 + 4 ×
N)
Output data size = 4
Input status address =16#8000 + (16 × N)
(Area2, address = 0 + 16 × N)
Output status address =16#8400 + (16 × N)
(Area2, address = 1 024 + 16
× N)
Lock ID = 100
254
65 017 (Solicitation)
1 024
Slave node number = 16#8063+N(flexible setting mode，node
number = N + 99)
Input data address = 16#0000+ (2 × N)(Area 1, address = 0 + 2 × N)
Input data size = 2
Output data address =16#0100 + (2 × N)
(Area 1, address = 256 + 2 ×N)
Output data size = 2

– 563 –JEM 1480:2023

Table 154 – Joining operation 2 (continued)
Setting parameter(Test data)(continued)

Solicitation
frame(continued)

Pattern 2(1st frame)(continued)

Contents of data (N = 0
through 63)(continued)

Pattern 2(2nd frame)

Node address of sourceside (SNA)TCD
Data size
Contents of data (N =64 through 99)

Input status address =16#8000 + (16 × N)
(Area2, address = 0 + 16 × N)
Output status address =16#8800 + (16 × N)
(Area2, address = 2 048 + 16
× N)
Lock ID = 254
254
65 017 (Solicitation)
576
Slave node number = 16#8063+N(flexible setting mode, node
number=N + 99)
Input data address = 16#0000+ (2 × N)(Area 1, address = 0 + 2 × N)
Input data size=2
Output data address =16#0100 + (2 × N)
(Area 1, address = 256 + 2 ×N)
Output data size = 2
Input status address =16#8000 + (16 × N)
(Area2, address = 0 + 16 × N)
Output status address =16#8800 + (16 × N)
(Area2, address = 2 048 + 16
× N)
Lock ID = 254

Table 155 – Joining operation 3
Test number
Major test group
Test group
Test objects
Test procedure
Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

V3-074
Device level network function
Master in flexible setting mode
Joining operation 3
Start the test equipment (flexible slave corresponding to the EUT) and the EUT (flexible
master).
Confirm that the EUT transmits the solicitation frame (1 200±2) ms after sending thetrigger frame.
Confirm that the EUT transmits the solicitation frame and joins in the network.
Confirm that the EUT does not send the solicitation frame after joining in the network.
NN
O (when implementing the flexible master function)
R
N
N
NJEM 1480:2023– 564 –

Table 155 – Joining operation 3 (continued)
Setting parameter(Node)

EUT(flexible master)

Test equipment

Setting parameter(Test data)

IO allocation setting (EUT)

Solicitation frame

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Number of input pointsof the slave
Number of output pointsof the slave
Number of control
slavesSlave setting

Node address of sourceside (SNA)TCD
Data size
Contents of data

100
(50)
(10)
256
40
4 096
160
6 (flexible slave)
1
50
10
0
4
0
16
64
64
1
Slave node number = 16#8001(flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = 4
Output data address =16#0100(Area 1, address = 256)
Output data size = 4
Input status address =16#8000(Area2, address = 0)
Output status address =16#9000(Area2, address = 4 096)100
65 017 (Solicitation)
16
Slave node number = 16#8001(flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = 4
Output data address =16#0100(Area 1, address = 256)
Output data size = 4
Input status address =16#8000(Area2, address = 0)

– 565 –JEM 1480:2023

Table 155 – Joining operation 3 (continued)
Setting parameter(Test data)(continued)

Solicitation frame(continued)

Contents of data(continued)

Output status address =16#9000(Area2, address = 4 096)
Lock ID = 100

Table 156 – Disengagement/re-join of flexible slave 1
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)

V3-075
Device level network function
Master in flexible setting mode
Disengagement/re-join of flexible slave 1
Start the test equipment (flexible slave corresponding to the EUT) and the EUT (flexible
master).
Disengage the test equipment from the network (Stop sending the token frame.)Re-join the test equipment to the network.
Confirm that the EUT disengages from the network and transmits the trigger frame by
the test procedure b).
Confirm that the EUT transmits the solicitation frame in (1 200±2) ms after sending thetrigger frame.
Confirm that the EUT transmits the solicitation frame and re-joins the network.
NN
O (when implementing the flexible master function)
R
N
N
N
EUT
Node number
100(flexible master)
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address 256
Area 1 data size
40
Area 2 data top address 4 096
Area 2 data size
160
Test equipment
Implementation class6 (flexible slave)
Node number
1
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top address 0
Area 1 data size
4
Area 2 data top address 0
Area 2 data size
16
Number of input points
64of the slave
Number of output points 64of the slave

JEM 1480:2023– 566 –

Table 156 – Disengagement/re-join of flexible slave 1 (continued)
Setting parameter(Test data)

IO allocation setting (EUT)

Solicitation frame

Number of control
slavesSlave setting

Node address of sourceside (SNA)TCD
Data size
Contents of data

1
Slave node number = 16#8001(flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = 4
Output data address = 16#0100(Area 1, address = 256)
Output data size = 4
Input status address = 16#8000(Area2, address = 0)
Output status address =16#9000(Area2, address = 4 096)100
65 017 (Solicitation)
16
Slave node number = 16#8001(flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = 4
Output data address = 16#0100(Area 1, address = 256)
Output data size = 4
Input status address = 16#8000(Area2, address = 0)
Output status address =16#9000(Area2, address = 4 096)
Lock ID = 100

Table 157 – Disengagement/re-join of flexible slave 2
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

V3-076
Device level network function
Master in flexible setting mode
Disengagement/re-join of flexible slave 2
Start the dummy node (controller). After the dummy node is in stable operation, start
the test equipment (flexible slave corresponding to the EUT).
Start the EUT (flexible master).
Disengage the test equipment from the network. (Stop sending the token frame.)Re-join the test equipment to the network.
Confirm that the EUT does not disengage from the network by the test procedure c).
Confirm that the EUT receives the token frame and transmits the solicitation frame.
Confirm that the EUT does not transmit any solicitation frame, in the situation that thetest equipment join the network after the EUT transmits the solicitation frame.

– 567 –JEM 1480:2023

Table 157 – Disengagement/re-join of flexible slave 2 (continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)

Setting parameter(Test data)NN
O (when implementing the flexible master function)
R
N
N
N
EUT
Node number(flexible master)
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Test equipment
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Number of input
points of the slave
Number of output
points of the slave
Dummy node
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting (EUT)
Number of control
slavesSlave setting

100
(50)
(10)
256
40
4 096
160
6 (flexible slave)
1
50
10
0
4
0
16
64
64
3 (controller)
130
50
10
4
4
16
16
1
Slave node number = 16#8001(flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = 4

JEM 1480:2023– 568 –

Table 157 – Disengagement/re-join of flexible slave 2 (continued)
Setting parameter(Test data)(continued)

IO allocation setting (EUT)(continued)

Slave setting(continued)

Solicitation frame

Node address ofsource side (SNA)TCD
Data size
Contents of data

Output data address = 16#0100(Area 1, address = 256)
Output data size = 4
Input status address = 16#8000(Area2, address = 0)
Output status address = 16#9000(Area2, address = 4 096)100
65 017 (Solicitation)
16
Slave node number = 16#8001(flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = 4
Output data address = 16#0100(Area 1, address = 256)
Output data size = 4
Input status address = 16#8000(Area2, address = 0)
Output status address = 16#9000(Area2, address = 4 096)
Lock ID = 100

Table 158 – Input and output data
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7

V3-077
Device level network function
Master in flexible setting mode
Input and output data
Start the EUT (flexible master) and the test equipment (flexible slave).
Change the output data for the test equipment using the EUT.
Change the input data of the test equipment.
Confirm by checking the common memory value that the output data of the EUT for thetest equipment has been changed by the test procedure b).
Confirm on the EUT that the input data in the EUT has been changed by the test
procedure c).
NN
O (when implementing the flexible master function.)RNNN

– 569 –JEM 1480:2023

Table 158 – Input and output data (continued)
Setting parameter(Node)

EUT(flexible master)

Test equipment(flexible slave)

Setting parameter(Test data)

IO allocation setting (EUT)

Solicitation frame

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Number of input
points of the slave
Number of output
points of the slave
Number of control
slavesSlave setting

Node address ofsource side (SNA)TCD
Data size
Contents of data

100
(50)
(10)
256
40
4 096
160
6 (flexible slave)
1
50
10
0
4
0
16
64
64
1
Slave node number = 16#8001(flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = 4
Output data address = 16#0100(Area 1, address = 256)
Output data size = 4
Input status address = 16#8000(Area2, address = 0)
Output status address =16#9000(Area2, address = 4 096)100
65 017 (Solicitation)
16
Slave node number = 16#8001(flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = 4
Output data address = 16#0100(Area 1, address = 256)
Output data size = 4

JEM 1480:2023– 570 –

Table 158 – Input and output data (continued)
Setting parameter(Test data)(continued)

Solicitation frame(continued)

Contents of data(continued)

Output(from EUT to test equipment)

Output data
(Common memoryarea 1 : 16#0100 to
16#0103)
Remote control area
(Common memoryarea 2 : 16#1000)
Specified slave type(Common memoryarea 2 : 16#1001)
Simple setting area
(Common memoryarea 2 : 16#1002 to
16#1009)

Input(from test equipment to EUT)

Reserved area
(Common memoryarea 2 : 16#100A to
16#100F)
Input data
(Common memoryarea 1 : 16#0000 to
16#0003)
Slave status(Common memoryarea 2 : 16#0000)
Actual slave type(Common memoryarea 2 : 16#0001)

Simple setting area
(Common memoryarea 2 : 16#0002 to
16#0009)

General-purpose
status area
(Common memoryarea 2 : 16#000A to
16#000F)

Input status address = 16#8000(Area2, address = 0)
Output status address =16#9000(Area2, address = 4 096)
Lock ID = 100
Changed to any value by the test
procedure b).

16#0001 (Remote run)Any value (no evaluation)

Master node number instructions= Any value (no evaluation)
Slave operating instructions =Any value (no evaluation)
Master specified area = Anyvalue (no evaluation)
Any value (no evaluation)

Changed to any value except
zero (0) by the test procedure c).

Any value (depending on the test
equipment status)
16#BFBF* Output slave (Used,
subsequent area not used, 64
points)* Input slave (Used, subsequentarea not used, 64 points)
Master node number = 100
Slave operation setting
confirmation status = Return ofthe master output value.
Master specified area = Returnof the master output value.
All 0

– 571 –JEM 1480:2023

Table 159 – Output status
Test number
Major test group
Test group
Test objects
Test procedure

Evaluation criteria

V3-078Device level network function
Master in flexible setting mode
Output status
Start the EUT (flexible master) and the test equipment (flexible slave).
Set the remote control for the test equipment to the “remote run (1)” using the EUT.
Set the remote control for the test equipment to the “remote stop (0)” using the EUT.
Set the slave operating instructions/the IO output upon disengagement of the masterfor the test equipment to “clear (0)” using the EUT. (Wait for the EUT to join,considering the possibility of restarting the EUT.)
Set the slave operating instructions/the IO output upon disengagement of the masterfor the test equipment to “hold (1)” using the EUT. (Wait for the EUT to join,considering the possibility of restarting the EUT.)
Set the slave operating instructions/the IO output upon remote control flag OFF for thetest equipment to “clear (0)” using the EUT. (Wait for the EUT to join, considering thepossibility of restarting the EUT.)
Set the slave operating instructions/the IO output upon remote control flag OFF for thetest equipment to “hold (1)” using the EUT. (Wait for the EUT to join, considering thepossibility of restarting the EUT.)
Set the slave operating instructions/the IO input upon remote control flag OFF for thetest equipment to “clear (0)” using the EUT. (Wait for the EUT to join, considering thepossibility of restarting the EUT.)
Set the slave operating instructions/the IO input upon remote control flag OFF for thetest equipment to “hold (1)” using the EUT. (Wait for the EUT to join, considering thepossibility of restarting the EUT.)
Confirm that the specified slave type and the master node number within the EUT
output status area are correct.
Confirm by checking the common memory value that the remote control area within the
EUT output status area is set to “remote run (1)” by the test procedure b).
Confirm by checking the common memory value that the remote control area within the
EUT output status area is set to “remote stop (0)” by the test procedure c).
Confirm by checking the common memory value that the slave operating
instructions/IO output upon disengagement of the master within the EUT output statusarea is clear (0) by the test procedure d).
Confirm by checking the common memory value that the slave operating
instructions/IO output upon disengagement of the master within the EUT output statusarea is hold (1) by the test procedure e).
Confirm cy checking the common memory value that the slave operating
instructions/IO output upon remote control flag OFF within the EUT output status area
is clear (0) by the test procedure f).
Confirm by checking the common memory value that the slave operating
instructions/IO output upon remote control flag OFF within the EUT output status area
is hold (1) by the test procedure g).
Confirm by checking the common memory value that the slave operating
instructions/IO input upon remote control flag OFF within the EUT output status area isclear (0) by the test procedure h).
Confirm by checking the common memory value that the slave operating
instructions/IO input upon remote control flag OFF within the EUT output status area ishold (1) by the test procedure i).

JEM 1480:2023– 572 –

Table 159 – Output status (continued)
Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)

Setting parameter(Test data)NN
O (when implementing the flexible master function.)
R
N
N
N
EUT
Node number(flexible master)
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Test equipment (flexible
Implementation classslave)
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
IO allocation setting(EUT)
Number of control
slavesSlave setting

Solicitation frame

Node address ofsource side (SNA)TCD
Data size
Contents of data

100
(50)
(10)
256
40
4 096
160
6 (flexible slave)
1
50
10
0
4
0
16
1
Slave node number = 16#8001(flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = 4
Output data address = 16#0100(Area 1, address = 256)
Output data size = 4
Input status address = 16#8000(Area 2, address = 0)
Output status address = 16#9000(Area 2, address = 4 096)100
65 017 (Solicitation)
16
Slave node number = 16#8001(flexible setting mode, node
number = 1)
Input data address = 16#0000(Area 1, address = 0)
Input data size = 4

– 573 –JEM 1480:2023

Table 159 – Output status (continued)
Setting parameter(Test data)(continued)

Solicitation frame(continued)

Contents of data(continued)

Output(from EUT to test
equipment)

Output data
(Common memoryarea 1: 16#0100 to
16#0103)
Remote control area
(Common memoryarea 2: 16#1000)

Specified slave type(Common memoryarea 2: 16#1001)

Simple setting area
(Common memoryarea 2: 16#1002 to
16#1009)

Input(from test equipment to
EUT)

Reserved area
(Common memoryarea 2: 16#100A to
16#100F)
Input data
(Common memoryarea 1: 16#0000 to
16#0003)
Slave status(Common memoryarea 2: 16#0000)

Output data address = 16#0100(Area 1, address = 256)
Output data size = 4
Input status address = 16#8000(Area2, address = 0)
Output status address = 16#9000(Area2, address = 4 096)
Lock ID = 100
Any value (no evaluation)

Depends on the test procedure.
* Test procedure b): Bit 0 = 1(Remote run)* Test procedure c): Bit 0 = 0(Remote stop)
16#BFBF* Output slave (Used, subsequentarea not used, 64 points)* Input slave (Used, subsequentarea not used, 64 points)
Master node number instructions =00
Slave operating instructions =Depends on the test procedure.
* Test procedure d): Bit 0 = 0 (IO
output upon disengagement of
the master = clear)* Test procedure e) : Bit 0 = 1 (IO
output upon disengagement of
the master = hold)* Test procedure f): Bit 1 = 0 (IO
output upon remote control flag
OFF = clear)* Test procedure g) : Bit 1 = 1 (IO
output upon remote control flag
OFF = hold)* Test procedure h) : Bit 2 = 0 (IO
input upon remote control flag
OFF = clear)* Test procedure i) : Bit 2 = 1 (IO
input upon remote control flag
OFF = hold)
Master specified area = Any value(no evaluation)
Any value (no evaluation)

All 0

Any value (depending on thestatus of the test equipment)

JEM 1480:2023– 574 –

Table 159 – Output status (continued)
Setting parameter(Test data)(continued)

Input(from test equipment to
EUT)(continued)

Actual slave type(Common memoryarea 2: 16#0001)

Simple setting area
(Common memoryarea 2: 16#0002 to
16#0009)

General-purpose
status area
(Common memoryarea 2: 16#000A to
16#000F)

6.7

16#BFBF* Output slave (Used, subsequentarea not used, 64 points)* Input slave (Used, subsequentarea not used, 64 points)
Master node number = 100
Slave operation setting
confirmation status = Return of themaster output value.
Master specified area = Return ofthe master output value.
All 0

Performance measurement

The test table of performance measurement is described on the Table 160.
Table 160 – Measurement of the token response time
Test number
Major test group
Test group
Test objects
Test procedure
Evaluation criteria

Test
necessity
identified
by theEUT class

Class 1
Class 2
Class 3
Class 4
Class 5Class 6Class 7
Setting parameter(Node)

V2-076
Performance measurement
Performance measurement
Measurement of the token response time
Start the EUT and the test equipment.
Measure time in units of 0.1 ms from transmission of a token by the test equipment totransmission of the token by the EUT.
Measure the performance again by changing the node number of the test equipmentfrom Pattern 1 to Pattern 2.
R
R
R
R
R
R
R
EUT
Classes
Node number
1(The
1, 3 and 4
Token watchdog time
(50)
parameters
Allowable minimum(10)
differframe interval timedepending on
Area 1 data top
4
the class)address
Area 1 data size
4
Area 2 data top
64
address
Area 2 data size
64
IO allocation setting
Any value(Class 4)

– 575 –JEM 1480:2023

Table 160 – Measurement of the token response time (continued)
Setting parameter(Node)(continued)

EUT
(The
parameters
differdepending on
the class)(continued)

Class 2

Class 5Classes 6 and
7Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size

Area 2 data top
address
Area 2 data size

Testequipment
pattern 1(Theparameters
differdepending on
the EUT class)

Classes
1, 2, 3, 4 and 5

Class 6

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address

Area 1 data size

Area 2 data top
address
Area 2 data size

1
(50)
(10)
0
0
0
0
100
(100)
(10)
256
256
1 024
1 024
1
(50)
(10)
0
Calculated from the numberof input slave points in the
EUT.
0
Calculated from the numberof input slave points andoutput slave points in the
EUT.
3 (controller)
2
50
0
0
4
0
64
4 (flexible master)250
0Depends on the number of
output slave points in theEUT.
* 0 point: 0* 1 point or more: 256
Calculated from the numberof output slave points in the
EUT.
1 024
1 024

JEM 1480:2023– 576 –

Table 160 – Measurement of the token response time (continued)
Setting parameter(Node)(continued)

Test
equipment
pattern 1(Theparameters
differdepending on
the EUT class)(continued)

Class 6
(continued)

Class 7

Test
equipment
pattern 2(Theparameters
differdepending on
the EUT class)

Classes
1, 2, 3, 4 and 5

Class 6

IO allocation setting(number of control
slaves)IO allocation setting(slave setting)

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time1

Slave node number =16#8001(flexible setting mode, node
number = 1)
Input data address =16#0000(Area 1, address = 0)
Input data size = Calculated
from the number of input
slave points in the EUT.
Output data address =Depends on the number of
output slave points in theEUT.
* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size =Calculated from the numberof output slave points in the
EUT.
Input status address =16#8000(Area2, address = 0)
Output status address =16#8400(Area2, address = 1 024)
3 (controller)
2
50
0
256
4
1 024
64
3 (controller)
254
50
0
0
4
0
64
4 (flexible master)
254
50
0

– 577 –JEM 1480:2023

Table 160 – Measurement of the token response time (continued)
Setting parameter(Node)(continued)

Test
equipment
pattern 2(Theparameterdifferdepending on
the EUT class)(continued)

Class 6
(continued)

Area 1 data size

Area 2 data top
address
Area 2 data size
IO allocation setting(number of control
slaves)IO allocation setting(slave setting)Class 7

Setting parameter(Test data)－

Area 1 data top
address

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top
address
Area 1 data size
Area 2 data top
address
Area 2 data size

Depends on the number of
output slave points in theEUT.
* 0 point: 0* 1 point or more: 256
Calculated from the numberof output slave points in the
EUT.
1 024
1 024
1

Slave node number =16#8001(flexible setting mode, node
number = 1)
Input data address =16#0000(Area 1, address = 0)
Input data size = Calculated
from the number of input
slave points in the EUT.
Output data address =Depends on the number of
output slave points in theEUT.
* 0 point: 16#0000(Area 1, address = 0)
* 1 point or more: 16#0100(Area 1, address = 256)
Output data size =Calculated from the numberof output slave points in the
EUT.
Input status address =16#8000(Area2, address = 0)
Output status address =16#8400(Area2, address = 1 024)
3 (controller)
254
50
0
256
4
1 024
64

JEM 1480:2023

77.1– 578 –

Interconnectability test
Test structure

Table 161 and Figures 2 through 7 show the structure of the interconnectability test. The dashedlines in Figures 2 through 7 indicate the machine under test. The test employs the EUT, devices
as test equipment, a PC as a setting tool and hubs or switching -hubs (sw-hub). Those devices
are selected to configure appropriate structure depending on the EUT class. Category 5 e ormore UTP cable is used to connect each node and a hub or a switching -hub.
IP addresses of the EUT and the test equipment shall be 192.168.250.(node number), and IP
address of the setting tool shall be 192.168.250.254.
The interconnectability test shall be conducted under the general test conditions defined inTable 2. While interconnectability test shall be conducted once for an EUT in general, a class 3
EUT with implementation of the device level network function shall be tested both in the test
structures shown in Figures 3 and 4.
* Note: Each test equipment in the figures and the tables may be written as “Tester” forabbreviation.
Table 161 – Test structures for the classes
Class
Test structure
Class 1Figure 3Class 2
Figure 3Class 3 a)
Figure 3Class 3 b)
Figures 3 and 4
Class 4
Figure 4Class 5Figure 5Class 6
Figure 6
Class 7
Figure 7
Note a) Class 3 (flexible master function not implemented)b) Class 3 (flexible master function implemented)

PC
Setting tool
192.168.250.254

10 MbpsHub #1

Node #10
Tester #1
Class 11000 Mbps
Hub #2

Node #110
Tester #3
Class 1

Node #50
Tester #2
Class 1

100 Mbps
Hub #3

Node #249
Tester #5
Class 3

Node #150
Tester #4
Class3

Node #200
Tester #11
Class 3

Node #150
Tester #12
Class 51000 Mbps
Hub #5

Node #130
Tester #8
Class 6

Node #80
Tester #7
Class 6

Node #1
Tester #14
Class 6

Node #48
Tester #15
Class 71000 Mbps
Hub #4

Node #30
Tester #6
Class 4

Node #100
Tester #13
Class 5

Node #230
Tester #10
Class 4

Node #180
Tester #9
Class 6

Figure 2 – Overall structure of test equipment for interconnectability test

Node #64
Tester #16
Class 7

– 579 –Node #1
EUT #1
Class 1

Node #1
EUT #2
Class 2or

10 MbpsHub #1

PC
Setting tool

Node #1
EUT #3
Class 3or

192.168.250.2541000 Mbps
Hub #2

Node #110
Tester #3
Class 1

Node #10
Tester #1
Class 1

JEM 1480:2023

Node #50
Tester #2
Class 1

100 Mbps
Hub #3

Node #249
Tester #5
Class 3

Node #150
Tester #4
Class3Figure 3 – Structure for interconnectability test 2 (Classes 1, 2 or 3)

PC
Setting tool
192.168.250.254

Node #249
Tester #5
Class 3100 Mbps
Hub #31000 Mbps
Hub #4

Node #30
Tester #6
Class 4

Node #130
Tester #8
Class 6
Node #80
Tester #7
Class 6

Node #230
Tester #3
Class 3orNode #230
Tester #4
Class 4

Node #180
Tester #9
Class6

Figure 4 – Structure for interconnectability test 3 (Classes 1, 3 and 4)

JEM 1480:2023– 580 –

192.168.250.254

Node #100
EUT #5Class5100 Mbps
Hub #31000 Mbps
Hub #5

Node #200
Tester #11
Class3

Node #1
Tester #14
Class6PC
Setting tool

Node #150
Tester #12
Class5

Node #64
Tester #16
Class7

Node #48
Tester #15
Class7

Figure 5 – Structure for interconnectability test 4 (Classes 5)

PC
Setting tool
192.168.250.254

100 Mbps
Hub #3

Node #249
EUT #5Class31000 Mbps
Hub #4

Node #30
Tester #6
Class4

Node #130
Tester #8
Class6

Node #80
Tester #7
Class6

Node #230
Tester #10
Class4

Node #180
Tester #6
Class6

Figure 6 – Structure for interconnectability test 4 (Class 6)

– 581 –PC
Setting tool
192.168.250.254

100 Mbps
Hub #3

JEM 1480:2023

Node #10
Tester #7
Class71000 Mbps
Hub #5

Node #200
Tester #11
Class3

Node #1
Tester #14
Class6

Node #100
Tester #13
Class5

Node #64
Tester #16
Class7

Node #48
EUT #15Class7

Figure 7 – Structure for interconnectability test 6 (Class 7)

JEM 1480:2023

7.2– 582 –

Test objects

Test objects shown in Table 162 are conducted as the interconnectability test for thecorresponding class.
Table 162 – Interconnectability test objects
Implementation
class

CyclicMessagetransmission
transmission echo
echo back test
back test
Class1
R
R
Class2N
R
Class3 a)R
R
Class3 b)
R
R
Class4N
R
Class5N
R
Class6N
R
Class7NR
R: Partially required N: Not necessary
Note a) Class 3 (flexible master function not implemented)b) Class 3 (flexible master function implemented)

7.3

N
N
N
R
R
R
R
R

IP
superimposition
test
N
N
R
R
R
R
R
R

Basic parameters for testing

7.3.1
a)

Device levelnetwork test

Allocation of nodes and common memory

Classes 1 and 3 in Table 163 shows allocation of nodes and common memory in theinterconnectability test for classes 1 and 3.
Table 163 – Allocation of nodes and common memory in the classes 1 and 3interconnectability test

Equipment
EUT

Testersb)

Node
EUT #1or
EUT #2
Tester #1
Tester #2
Tester #3
Tester #4
Tester #5

Class
1
or
3
1
1
1
13
13

Node
number
1

10
50
110
150
249

Area 1
Top address
16#0000

16#0008
16#001016#0018
16#0020
16#0028

Size
8

8
8
8
8
8

Area 2Top address
16#0000

16#0040
16#0080
16#00C0
16#0100
16#0140Class 2 in Table 164 shows allocation of node number and common memory in theinterconnectability test for class 2.

Size
64

64
64
64
64
64

– 583 –JEM 1480:2023

Table 164 – Allocation of nodes and common memory in the interconnectability test forclass 2Equipment

EUT
Testers

Node

EUT #2
Tester #1
Tester #2
Tester #3
Tester #4
Tester #5

Class

2
1
1
1
13
13

Node
numberArea 1

Area 2Top address

Size

Top addressSize

16#0000
16#0008
16#001016#0018
16#0020
16#0028

0
8
8
8
8
8

16#0000
16#0040
16#0080
16#00C0
16#0100
16#0140

0
64
64
64
64
64

1
10
50
110
150
249

Class 3 (flexible master function implemented) and class 4 in Table 165 shows allocation of nodes
and common memory in the interconnectability test for class 3 (device level network function
implemented) and class 4.

c)Table 165 – Allocation of nodes and common memory in the interconnectability test forclass 3 and class4
Class

Node
number

EUT #3or
EUT #4

3
or
4

230

Input
0

Output0

Top address
16#0000

Size
0

3

249

0

0

16#0028

8

4

30

0

0

16#0000

0

16#1100

80

6

80

256

256

16#0000

0

16#0400

80

6

130

256

256

16#0000

0

For input data

0

16#0500
16
For input status
16#051064
For input data

Testers

Equipment

Tester#5
Tester#6
Tester#7
Tester#8

Tester#9

6

180

Slave points

272

240

Area 1

16#0000

Area 2Top address
Size
for #130 output data
16#11B0
16
for #130 output status
16#11C064
for #180 output data
16#1200
15
for #180 output status
16#120F80
16#014064

16#0600
17
For input status
16#061180d)Class 5 in Table 166 shows major parameters in the interconnectability test for class 5.
Table 166 – Major parameters in the interconnectability test for class 5
Class

Node
Slave points
Area 1
number Input Output Top address
Size
EUT #55100
00
16#0100
192 words
Tester #11
3
200
0
0
16#0000
0 wordTester #12
5
150
0
0
16#01C0
64 words
Tester #14
6*
1
128
64
16#0000
8 words
Tester #15
7
48
32
48
16#00BC
4 words
Tester #16
7
64
64
32
16#00FC
4 words
Note * Tester #14 operates under fixed slave mode, while its class is 6.

Testers

Equipment

Master - slave relationships of the device level network as follows:-- Configuration 1 (Master) EUT #5 - (Slave) test equipment #14 and #15.

Area 2Top address
Size
16#0400
768 words
16#0800
32 words
16#0700
256 words
16#0000
32 words
16#02F0
16 words
16#03F0
16 words

JEM 1480:2023– 584 –-- Configuration 2 (Master) test equipment #12 - (Slave) Test equipment #16.
e)Class 6 in Table 167 shows allocation of nodes and common memory in the interconnectability
test for class 6.

Table 167 – Allocation of nodes and common memory in the interconnectability test forclass 6

Testers

Equipment

Class

EUT #6

6

NodeNumber180

Tester #5
Tester #6
Tester #7
Tester #8
Tester #10

3
4
6
6
4

249
30
80
130
230

Slave points
Input Output
*
*

0
0
256
256
0

0
0
256
256
0

Area 1
Top address
16#0000

Size
0

16#0028
16#0000
16#0000
16#0000
16#0000

800
00Area 2Top address
Size
For input data
16#0600
0～512*For input status
16#0600 - 0800*
16 - 2 048*
16#0140
64
16#110080
16#040080
16#0500
80
For #130 output data
16#11B0
16
For #130 output status
16#11C064
For #180 output data
16#1200
0 - 512*For #180 output status
16#1200 - 1400*
16 - 2 048*

Note * Depends on IO size of EUT #6.

Class 7 in Table 168 shows major parameters in the interconnectability test for class 7.

f)

Table 168 – Major parameters in the interconnectability test for class 7
Area 1
Area 2Top address
Size
Top address
Size
EUT #7716#0024N3c)
16#0090
N4d)
Tester #11
3
0
0 word16#0800
32 words
Tester #13
5
16#0100
256
16#0400
1024 words
words
Tester #14
6e)
1
128
64
16#0000
8 words
16#0000
32 words
Tester #15
7
48
32
48
16#00BC
4 words
16#02F0
16 words
Tester #16
7
64
64
32
16#00FC
4 words
16#03F0
16 words
Note a) “N1” is number of input points of the slave, EUT #7, provided not more than 2 432.
b) “N2” is number of output points of the slave, EUT #7, provided not more than 2 432.
c) “N3” varies depending on number of input points of the slave, EUT #7.
d) “N4” varies depending on numbers of input and output points of the slave, EUT #7.
e) Tester #14 operates under fixed slave mode, while its class is 6.

Testers

Equipment

Class

Node
number
10
200
100

Slave points
Input Output
N1a)
N2b)
0
0
0
0

Master - slave relationship in the device level network is as follows:-- (Master) test equipment #13 - (Slave) EUT #7, test equipment #14, #15 and #16.
7.3.2

Allocation map of common memory

Allocation map of common memory is as follows:– 585 –a)

JEM 1480:2023

Class 1 and Class 3 in Figure 8 shows allocation map of common memory for each node in theinterconnectability test for classes 1 and 3.

#1 or #3

#1 or #3

Figure 8 – Allocation map of common memory for classes 1 and 3

JEM 1480:2023b)– 586 –Class 2 in Figure 9 shows allocation map of common memory for each node in theinterconnectability test for class 2.

Figure 9 – Allocation map of common memory for class 2

– 587 –c)

JEM 1480:2023

Class 3 (flexible master function implemented) and class 4 in Figure 10 shows allocation map ofcommon memory for each node in the interconnectability test for class 3 (flexible master function
implemented) and class 4.

EUT#3 or #4

Figure 10 – Allocation map of common memory for classes 3 and 4

JEM 1480:2023d)– 588 –Class 5 in Figure 11 shows allocation map of common memory for each node in theinterconnectability test for class 5.

5

Figure 11 – Allocation map of common memory for class 5e)Class 6 in Figure 12 shows allocation map of common memory for each node in theinterconnectability test for class 6.

5

– 589 –JEM 1480:2023

6
#6

6.
6

Figure 12 – Allocation map of common memory for class 6
f)

Class 7 in Figure 13 shows allocation map of common memory for the interconnectability test forclass 7.

JEM 1480:2023– 590 –

7

7

#7

#7

7.
7.
7.

Figure 13 – Allocation map of common memory for class 7

– 591 –7.3.3

JEM 1480:2023

Test start

The test shall start as follows.
a)Class 1 and class 3 The interconnectability test for Class 1 and Class 3 starts when the test
equipment confirms that “interconnectability test preparation completion flag (TSF)” by which the
EUT indicates it is prepared for the interconnectability test is set. The EUT sets the“interconnectability test preparation completion flag (TSF)” to “1” when it is ready for theinterconnectability test after starting its operation, and waits for the test equipment to start the
test. The test equipment starts the test at the time when it confirms the flag is set, displaying thetest start.
The interconnectability test preparation completion flag (TSF) is defined in the node #1 status ataddress 16#003F of the EUT area 2. Details of the node #1 status are shown in Figure 14. Also
the timing of the test start is shown in Figure 15.

Area 2Address
16#003F

215
TSF

20
*

*

*

*

*

*

*

*

Note 1interconnectability test preparation completion flag (TSF)

Note 2“*” means optional.

*

*

*

*

*

1：complete
0：under preparation

Figure 14 – Details of node #1 status

Figure 15 – Test start timing for class 1 and class 3**

JEM 1480:2023b)– 592 –Class 2 The interconnectability test for class 2 starts 10 seconds after the test equipment #1(node #10) confirms link establishment of all nodes (the EUT and the test equipment #1 through#5). The test equipment #1 displays the test start. Timing of the test starts is shown Figure 16.

Figure 16 – Timing of test start for Class 2

– 593 –c)

JEM 1480:2023

Class 4 and class 6 The interconnectability test for class 4 and class 6 starts 10 seconds after thetest equipment #6 (node #30) confirms link establishment of all nodes (the EUT and test
equipment #5 and #7 through #10). Test equipment #6 displays the test start. Timing of the test
start is shown in Figure 17.

Figure 17 – Timing of test start for class 4 and class 6

JEM 1480:2023d)– 594 –Class 5 and Class 7 The interconnectability test for class 5 and class 7 starts 10 seconds after
the test equipment #11 (node #200) confirms link establishment of all nodes (the EUT and the test
equipment). Timing of the test start is shown in Figure 18.

Figure 18 – Timing of test start for class 5 and class 7
7.3.4

Interconnectability message test completion“Interconnectability test completion flag” is defined to manage test execution right among thetest equipment #1 through #5 in message transmission echo back test for class 1, class 2 andclass 3. This flag is allocated at the node status in Area 2 of the test equipment.
Table 169 shows address list of the node status in area 2 of the test equipment and Figure 19
shows details of the node status in Area 2 of the test equipment.
Table 169 - Address list of node status in Area 2 of the test equipment
Name of test
equipment
Tester #1
Tester #2
Tester #3
Tester #4
Tester #5

Node number

Address

10
50
110
150
249

16#007F
16#00BF
16#00FF
16#013F
16#017F

215
MTF
*
*
*
*
*
*
*
*
*
*
Note 1: Interconnectability message test completion flag (MTF)***
1: normal
0: others

Note 2: “*” means optional.

Figure 19 – Details of node status in Area 2 of test equipment

*

20
*

– 595 –7.4

JEM 1480:2023

Cyclic transmission echo back test

Cyclic transmission echo back test shall be executed as follows: test equipment #1 through #5
transmits cyclic data; the EUT sends back the data; and the test equipment #1 through #5
compares the received data with the transmitted data. Hereinafter the tes t equipment at thecyclic transmission echo bask test means the test equipment #1 through #5.
7.4.1

Test cycle

Test cycle is a unit of repeated operation where the test equipment transmits test data, receives
data and compares the latter with the former. Figure 20 shows three phases that consist thetest cycle.

Figure 20 – Three phases of cyclic transmission echo back test cycle
The three phases of cyclic transmission echo back test cycle are as follows:a)Data transmission phase
The test equipment writes transmission data into the test data
area in the self node Area 2 shown in Figure 8. The test data is updated on completion of eachtest cycle. Method to update the test data is optional to each test equipment. However the test
data shall be different from the last one.

b)

Data echo back phase The EUT transfers or copies the test data from each test equipment into
the echo back data area in the self node Area 2 shown in Figure 8.

c)Data reception and comparison phase
The test equipment receives the echo back data fromthe EUT and compares it with the self node test data shown in Figure 8. The comparison shallstart one (1) second after it updates the test data considering latency of echo back by the EUT. If
result of the comparison is match, the next test cycle starts. If not, comparison error is displayed
externally and the test ends.

7.4.2

Flow of echo back data in the cyclic transmission test

Flow of echo back data in the cyclic transmission test is shown in Figure 21.

JEM 1480:2023– 596 –

Figure 21 – Flow of cyclic transmission echo back data

– 597 –7.5

JEM 1480:2023

Message transmission echo back test

Message transmission echo back test shall be executed as follows: the test equipment transmits“message echo back request (TCD = 65 015)” to the EUT; the EUT transmits its response (TCD
= 65215); the test equipment decides whether the test is successful based on comparison of
the response with the request.
For classes 1, 2 and 3, test equipment #1 through #5 executes the message echo back with the
EUT; for class 3 with device level network function implemented and classes 4 and 6, test
equipment #6 executes the message echo back with the EUT; and for classes 5 and 7, test
equipment #11 executes the message echo back with the EUT.
7.5.1

Test cycle

Test cycle is a unit of repeated operation for the message transmission, reception andcomparison. Duration of one cycle is 10 seconds. For classes 1, 2 and 3, the execution right of
the test shall be transferred to the next test equipment at the end of th e each test cycle, as
shown in Figure 22; for classes 4 and 6, the execution right shall be always held by test
equipment #6; and for classes 5 and 7, the execution right shall be always held by test
equipment #11.

Figure 22 – Three phases of message echo back test cycle
Three phases of the message transmission echo back test cycle shall be as follows:a)Message transmission phase: The test equipment sets test data at the message data portion ofa request message and transmits it. The request message can be transmitted while the self
node holds the test execution right. The test data which is 1024 bytes in length shall be updatedon completion of each test cycle. Method to update the test data is optional for each test
equipment. However the test data shall be different from the last one.

JEM 1480:2023– 598 –b)

Message echo back phase: The EUT transmits
from the test equipment.

c)

Message reception and comparison phase: The test equipment receives the response message
from the EUT, compares it with the test data of the self node and decides whether the test is
successful. Although the data comparison should preferably be done for all of the data, it shall at
least be done for the first word, the last word and optional one word in between. If the result of thecomparison is match, the next test equipment executes its test after one test cycle time (10seconds) elapsed. If the result of the comparison is not match, a comparison error is displayed
externally and the test ends. Also if the response message cannot be received by the one test
cycle time (10 seconds) after the transmission of the request message, the result is error and thetest ends.

7.5.2

the response message to the request message

Flow of message transmission echo back test

Message transmission echo back test for classes 1, 2 and 3 shall be executed as follows: eachtest equipment executes one test cycle and transfers the test execution right to the next test
equipment; each test equipment transmits the request message seque ntially to the EUT,
receives response message from the EUT and
decides the test result based on thecomparison. Figure 23 shows the flow of the test.

Figure 23 – Flow of message transmission echo back test
7.5.3

Management of the test execution rightManagement of the test execution right for classes 1, 2 and 3 shall be as follows:a)

The test equipment that has obtained the test execution right executes the message transmission
echo back test to the EUT.

b)

On completion of one test cycle, the test equipment sets “interconnectability message testcompletion flag (MTF)” of test equipment node status as shown Figure 19. The flag shall be kept
set until the next test equipment sets its MTF and be reset at this point of time.

c)

The next test equipment monitors MTF of the preceding test equipment, recognizes that it obtains
the test execution right when the MTF becomes ON and starts its test cycle.

– 599 –JEM 1480:2023

d)

The test equipment resets MTF one test cycle time (10 seconds) after it obtains the test
execution right in case it detects comparison error.

e)Figure 24 shows transition timing of the test execution right.
EUT

TSF

Node #1

Tester #1

test exec.

Tester #1

MTF

Tester #2

test exec.

Tester #2

MTF

Tester #3

test exec.

Tester #3

MTF

Tester #4

test exec.

Tester #4

MTF

Node #10

Node #50

Node #110

Node #150

10sec

10sec
/

10sec
/

10sec

10sec
/

Figure 24 – Transition timing of the test execution right
7.6

Device-level network test

7.6.1

Class 3 (flexible master function implemented), Class 4, and Class 6:

The device-level network test of Class 3 (flexible master function implemented), C lass 4, andClass 6 is defined as follows.
a)

Master/slave combination: The device-level network test for Class 3 (flexible master function
implemented), Class 4, and Class 6 are to be conducted in a multi-master configurationconsisting of a combination of test equipment #6 (master) and test equipment #7 (slave), and a
combination depending on the class of EUT, as shown in Table 170.
Table 170 – Combination of master/slave
Class

Class 3
Class 4
Class 6Equipment under test(EUT)
Function
EUT No.
category
Flexiblemaster
Flexiblemaster
Flexible slave

Node No.

Test equipment
Test
Node No.
equipment№#8, #9#130, #180

#3

#230

#4

#230

#8, #9#130, #180

#6

#180

#8, #10#130, #230

JEM 1480:2023b)– 600 –Class 3 (flexible master function implemented) and Class 4: The device-level network test forClass 3 (flexible master function implemented) and Class 4 verifies the following items with test
equipment #6. If any abnormality is detected, the test equipment displays device-level network
test error, terminating the test.

Note that no comparison between input and output data is conducted in this test.
1)

Add the EUT, test equipment #8 and #9 to the link.

2)

Check whether the common memory area for test equipment #8 and #9 is allocated as configured,using solicitation frames sent from the EUT.

3)

Check whether the values of the specified slave type and the master node number instructions in
the master status area of the EUT are correct.

The parameters in this test are listed in Table 171 and Table 172.
Table 171 – Device level test common memory area settings (Class 3 and Class 4)
Test equipment
Class
Node number
№
EUT
3, 4
230
Test equipment
6130#8
Test equipment
6
180
#9
Note*
All addresses are in Area 2.

Top address*Size

16#11B0175

16#050080

16#0600

97

Table 172 – Device level test parameters for the master status area (Class 3 and Class
4)
Item
Specified slave type (for test
equipment #8)

Master node number instruction (fortest equipment #8)
Specified slave type (for test
equipment #9)

Master node number instruction (fortest equipment #9)
Note*
All addresses are of Area 2.

c)Address*
16#11C1
16#11D1
16#11E1
16#11F1Value
16#FFFF
16#FFFF
16#FFFF16#BFBF

16#11C2

16#00E6

16#1210
16#1220
16#1230
16#1240
16#1250

16#FFFF
16#FFFF
16#FFFF
16#AFFF
16#008F

16#121116#00E6Class 6: The device-level network test for Class 6 verifies the following items with test equipment#6. If an abnormality is detected, the test equipment displays the corresponding error in thedevice-level network test, terminating the test.

Note that no comparison between input and output data is conducted in this test.
1)

Add the EUT to the link.

2)

Check whether the common memory area for the EUT test is allocated as configured, using
solicitation frames sent from test equipment #10.

3)

Check whether the values for the slave status and the master node numbers in the slave statusarea of the EUT are correct.

The parameters in this test are listed in Table 173 and Table 174.
Table 173 – Device level test common area settings (Class 6)

– 601 –Test equipment
Class
Node number
No.
EUT
6
180
Note a) The address is of Area 2.
b) Varies according to the IO size of the EUT.

JEM 1480:2023

Top addressa)Size

16#0600

16 through 2560b)

Table 174 – Device level test parameters for the master status area (Class 6)
Item
Addressa)b)
Slave status (for EUT)b)
Master node number (for EUT)a)
Note
All addresses are of Area 2.
b) Varies according to the IO size of the EUT.

7.6.2

Value
16#0001 or 16#0003
16#00E6Class 5The device-level network test for Class 5 must verify the following items with test equipment#11. If an abnormality is detected, the test equipment displays the corresponding error in thedevice-level network test, terminating the test.
Note that no comparison between input and output data is conducted in this test.
a)

Add EUT#5 to the link.

b)

Check whether the common memory area of the EUT#5 is allocated as configured.

c)

Check whether the values for the specified slave type and the master node number instructions in
the master status area of the EUT#5 are correct.

The parameters confirmed in this test are listed in Table 175:
Table 175 – Device level test parameters to be confirmed (Class 5)
Item
Specified slave type (for test equipment #14)
Master node number instruction (for test
equipment #14)
Specified slave type (for test equipment #15)
Master node number instruction (for test
equipment #15)

7.6.3

Address
16#0401 in Area 2
16#0411 in Area 2
16#0402 in Area 2

Value
16#FFBF
16#BF00
0 or 100

16#06F1 in Area 2
16#06F2 in Area 2

16#9FAF0 or 100

Class 7The device-level network test for Class 7 verifies the following items with test equipment #11.
If an abnormality is detected, the test equipment displays the corresponding error in the device level network test , terminating the test.
Note that no comparison between input and output data is conducted in this test.
a)

Add EUT#7 to the link.

b)

Check whether the common memory area of EUT#7 is allocated as configured.

c)

Check whether the values for the slave status and master node number in the slave status area of
EUT#7 are correct.

The parameters confirmed in this test are listed in Table 176:
Table 176 – Device level test parameters to be confirmed (Class 7)
Item
Slave status (for EUT#7)
Master node number (for EUT#7)

7.7

Address
16#0090 in Area 2
16#0092 in Area 2

Value
1 (stopped) or 3 (running)
100

IP communication superimposition test

In the IP communication superimposition test, the ECHO command of ICMP protocol is executed

JEM 1480:2023– 602 –

from a setting tool computer to superimpose IP communication for the EUT. With IP
communication superimposed, the test checks whether no error is detected in any other tests,
while the result of the ECHO command is not judged. For Windows, use the Ping com mandshown in Figure 25 to conduct the test.
Note 1 Windows is the registered trademark of Microsoft Corporation in the United States andother countries.
Interval time of packet transmission is 1 second.
ping -t (IP address of EUT)
Figure 25 – Ping command
7.8
7.8.1

Overview of interconnectability test
Class 1 and Class 3

The test table for the Class 1 EUT and Class 3 EUT interconnectability test is defined in Table177.

– 603 –JEM 1480:2023

Table 177 – Test table for interconnectability test (Class 1 and Class 3)
Major test group
Test procedure

Evaluation
criteria
Setting
parameter(node)

Interconnectability (in case Class 1 EUT and Class 3 EUT)
Start the EUT and the test equipment, then start the network and leave it in operation
status (normal status).
Set the interconnectability test preparation completion flag of the EUT after checking that
the EUT is in test preparation completion.
Execute the Ping command on the setting tool computer to superimpose IP communication
to the EUT. Note that this is not conducted for Class 1.
The normal operation status continues for longer than 2 consecutive hours and no error isdisplayed for the cyclic echo back test or the message transmission test.
EUT #1 or #3
Implementation class
1 or 3 (controller)
Node number
1
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address 16#0000
Area 1 data size
8
Area 2 data top address 16#0000
Area 2 data size
64
Test
Test
Implementation class1 (controller)
equipment
equipment
Node number
10#1
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top address 16#0008
Area 1 data size
8
Area 2 data top address 16#0040
Area 2 data size
64
Test
Implementation class1 (controller)
equipment
Node number
50#2
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top address 16#0010
Area 1 data size
8
Area 2 data top address 16#0080
Area 2 data size
64
Test
Implementation class1 (controller)
equipment
Node number
110#3
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top address 16#0018
Area 1 data size
8
Area 2 data top address 16#00C0
Area 2 data size
64

JEM 1480:2023– 604 –

Table 177 – Test table for interconnectability test (Class 1 and Class 3) (continued)
Setting
parameter(node)(continued)

Test
equipment(continued)

Test
equipment#4

Test
equipment#5

Setting
parameter(test data)

Transmission
data in cyclic
transmission

Testequipment#1

Test
equipment#2

Test
equipment#3

Test
equipment#4

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Area 1 data top address

3 (controller)
150
50
10

Area 1 data size

1

Area 2 data top address

16#0040

Area 2 data size

8

Contents of data

Area 1 data top address

Arbitrary data specified by the test
equipment manufacturer (different
for each cycle)
16#0010

Area 1 data size

1

Area 2 data top address

16#0080

Area 2 data size

8

Contents of data

Area 1 data top address

Arbitrary data specified by the test
equipment manufacturer (different
for each cycle)
16#0018

Area 1 data size

1

Area 2 data top address

16#00C0

Area 2 data size

8

Contents of data

Area 1 data top address

Arbitrary data specified by the test
equipment manufacturer (different
for each cycle)
16#0020

Area 1 data size

1

Area 2 data top address

16#0100

Area 2 data size

8

Contents of data

Arbitrary data specified by the test
equipment manufacturer (different
for each cycle)

16#0020816#010064
3 (controller)
249
50
10
16#0028816#014064
16#0008

– 605 –JEM 1480:2023

Table 177 – Test table for interconnectability test (Class 1 and Class 3) (continued)
Setting
parameter(test data)(continued)

Transmission
data in cyclic
transmission(continued)

Transmission
data inmessagetransmission

Testequipment#5

Test
equipment#1

Area 1 data top address

16#0028

Area 1 data size

1

Area 2 data top address

16#0140

Area 2 data size

8

Contents of data

Arbitrary data specified by the test
equipment manufacturer (different
for each cycle)
10

Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Contents of data

Test
equipment#2

Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Contents of data

Test
equipment#3

Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Contents of data

Test
equipment#4

Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Contents of data

Test
equipment#5

Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD

1
65 015 (message echo backrequest)512
Arbitrary data specified by the test
equipment manufacturer (different
for each cycle)
50
1
65 015 (message echo backrequest)512
Arbitrary data specified by the test
equipment manufacturer (different
for each cycle)
110
1
65 015 (message echo backrequest)512
Arbitrary data specified by the test
equipment manufacturer (different
for each cycle)
150
1
65 015 (message echo backrequest)512
Arbitrary data specified by the test
equipment manufacturer (different
for each cycle)
249
1
65 015 (message echo backrequest)JEM 1480:2023– 606 –

Table 177 – Test table for interconnectability test (Class 1 and Class 3) (continued)
Setting
parameter(test data)(continued)

Transmission
data inmessagetransmission(continued)
Received data
in message
transmission

Testequipment#5(continued)

Data size
Contents of data

512
Arbitrary data specified by the test
equipment manufacturer (different foreach cycle)

Testequipment#1

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD

1

Data size
Contents of data
Test
equipment#2

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Test
equipment#3

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Test
equipment#4

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Test
equipment#5

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

10

65 215 (message echo backresponse)
512
Echoes back the contents of the data
sent from test equipment #1.
1
50

65 215 (message echo backresponse)
512
Echoes back the contents of the data
sent from test equipment #2.
1
110

65 215 (message echo backresponse)
512
Echoes back the contents of the data
sent from test equipment #3.
1
150

65 215 (message echo backresponse)
512
Echoes back the contents of the data
sent from test equipment #4.
1249

65 215 (message echo backresponse)
512
Echoes back the contents of the data
sent from test equipment #5.

– 607 –7.8.2

JEM 1480:2023

Class 2The test table for the Class 2 EUT interconnectability test is defined in Table 178.
Table 178 – Test table for interconnectability test (Class 2)
Major test group
Test procedure

Evaluation
criteria
Setting
parameter(node)

Interconnectability (if EUT is Class 2)
Start the EUT and the Test equipment, then start the network and leave it in operation
status (normal status)
Using test equipment #1, check for the message displayed which indicates the test has
been started.
The normal operation status continues for longer than 2 consecutive hours and no error isdisplayed for the message transmission test.
EUT #2
Implementation class2
Node number
1
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address 16#0000
Area 1 data size
0
Area 2 data top address 16#0000
Area 2 data size
0
Test
Test
Implementation class1 (controller)
equipment
equipment
Node number
10#1
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top address 16#0008
Area 1 data size
8
Area 2 data top address 16#0040
Area 2 data size
64
Test
Implementation class1 (controller)
equipment
Node number
50#2
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top address 16#0010
Area 1 data size
8
Area 2 data top address 16#0080
Area 2 data size
64
Test
Implementation class1 (controller)
equipment
Node number
110#3
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top address 16#0018
Area 1 data size
8

JEM 1480:2023– 608 –

Table 178 – Test table for interconnectability test (Class 2) (continued)
Setting
parameter(node)(continued)

Test
equipment(continued)

Test
equipment#3(continued)
Test
equipment#4

Test
equipment#5

Setting
parameter(test data)

Transmission
data inmessagetransmission

Testequipment#1

Area 2 data top address
Area 2 data size

16#00C064

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD

3 (controller)
150
50
10

Data size
Contents of data

Test
equipment#2

Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Contents of data

Test
equipment#3

Node address of sourceside (SNA)
Node address ofdestination side (DNA)TCD
Data size
Contents of data

16#0020816#010064
3 (controller)
249
50
10
16#0028816#014064
10
1
65 015 (message echo backrequest)512
Arbitrary data specified by the test
equipment manufacturer (different
for each cycle)
50
1
65 015 (message echo backrequest)512
Arbitrary data specified by the test
equipment manufacturer (different
for each cycle)
110
1
65 015 (message echo backrequest)512
Arbitrary data specified by the test
equipment manufacturer (different
for each cycle)

– 609 –JEM 1480:2023

Table 178 – Test table for interconnectability test (Class 2) (continued)
Setting
parameter(test data)(continued)

Transmission
data inmessagetransmission(continued)

Test
equipment#4

Test
equipment#5

Received data
in message
transmission

Testequipment#1

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD

150

Data size

512

Contents of data

Arbitrary data specified by the test
equipment manufacturer (different foreach cycle)
249

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD

65 015 (message echo back request)

Contents of data

Arbitrary data specified by the test
equipment manufacturer (different foreach cycle)
1

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Test
equipment
#4

1

512

Data size
Contents of data

Test
equipment#3

65 015 (message echo back request)

Data size

Data size
Contents of data

Test
equipment#21

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)

10

65 215 (message echo backresponse)
512
Echoes back the contents of the datain the message sent from test
equipment #1.
1
50

65 215 (message echo backresponse)
512
Echoes back the contents of the datain the message sent from test
equipment #2.
1
110

65 215 (message echo backresponse)
512
Echoes back the contents of the datain the message sent from test
equipment #3.
1
150

JEM 1480:2023– 610 –

Table 178 – Test table for interconnectability test (Class 2) (continued)
Setting
parameter(test data)(continued)

Received data
in message
transmission(continued)

Test
equipment#4(continued)

TCD

Test
equipment#5

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD

Data size
Contents of data

Data size
Contents of data

7.8.3

65 215 (message echo backresponse)
512
Echoes back the contents of the datain the message sent from test
equipment #4.
1249

65 215 (message echo backresponse)
512
Echoes back the contents of the datain the message sent from test
equipment #5.

Class 3 (flexible master function implemented) and Class 4

The test table for the Class 3 EUT (flexible master function implemented) and Class 4 EUT
interconnectability test is defined in Table 179.
Table 179 – Test table for interconnectability test [Class 3 (device level functions
implemented) and Class 4]
Major test group
Test procedure

Evaluation
criteria
Setting
parameter(node)

Interconnectability [in case Class 3 EUT (device level functions implemented) and Class 4
EUT]a) Start the EUT and the test equipment, then start the network and leave it in operation status(normal status).
b) Using test equipment #6, check for the message displayed which indicates the test has
been started.
c) Execute the Ping command on the setting tool computer to superimpose IP communication
for the EUT.
The normal operation status continues for longer than 2 consecutive hours and no error isdisplayed for the message transmission echo back test or the device level test.
EUT #3 or #4
Implementation class
3 or 4 (flexible master)
Node number
230
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address 16#0000
Area 1 data size
0
Area 2 common memory setting
For Node #130 output data
Area 2 data top address 16#11B0
Area 2 data size
16
For Node #130 output status
Area 2 data top address 16#11C0
Area 2 data size
64
For Node #180 output data
Area 2 data top address 16#1200
Area 2 data size
15
For Node #180 output status
Area 2 data top address 16#120F
Area 2 data size80

– 611 –JEM 1480:2023

Table 179 – Test table for interconnectability test [Class 3 (device level functions
implemented) and Class 4] (continued)
Setting
parameter(node)(continued)

Test
equipment

Test
equipment#5

Test
equipment#6

Test
equipment#7

Test
equipment#8

Test
equipment#9

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Number of IO of a slave
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Number of IO of a slave
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address

3 (controller)
249
50
10
16#0028816#014064
4 (flexible master)
30
50
10
16#0000
0
16#110080
6 (flexible slave)
80
50
10
16#0000
0
16#0400
80
Input: 256; Output: 256
6 (flexible slave)
130
50
10
16#0000
0
16#0500
80
Input: 256; Output: 256
6 (flexible slave)
180
50
10
16#0000

JEM 1480:2023– 612 –

Table 179 – Test table for interconnectability test [Class 3 (device level functions
implemented) and Class 4] (continued)
Setting
parameter(node)(continued)

Test
equipment(continued)

Test
equipment#9(continued)

Setting
parameter(test data)

Data sent frommaster

EUT

Area 1 data size
Area 2 data top address
Area 2 data size
Number of IO of a slave
Output data (for test
equipment #8)
Remote control area(for test equipment #8)
Specified slave type(for test equipment #8)

0
16#0600
97
Input: 272; Output: 240(No evaluation)(No evaluation)
Area 2; 16#11C1 : 16#FFFF
Area 2; 16#11D1 : 16#FFFF
Area 2; 16#11E1 : 16#FFFF
Area 2; 16#11F1 : 16#BFBF

Simple setting area(for test equipment #8)

Reserved area(for test equipment #8)
Output data(for test equipment #8)
Remote control area(for test equipment #9)
Specified slave type(for test equipment #9)

Simple setting area(for test equipment #9)

Test
equipment#6

Reserved area(for test equipment #9)
Output data(for test equipment #7)
Remote control area(for test equipment #7)
Specified slave type(for test equipment #7)

Master node
numberinstruction
Slave operation
instruction
Mastercommand area
(No evaluation)

16#00E6(No evaluation)(No evaluation)(No evaluation)(No evaluation)
Area 2; 16#1210 : 16#FFFF
Area 2; 16#1220 : 16#FFFF
Area 2; 16#1230 : 16#FFFF
Area 2; 16#1240 : 16#AFFF
Area 2; 16#1250 : 16#008F
Master node
16#00E6
numberinstructions
Slave operating (No evaluation)
instructions
Master(No evaluation)command area
(No evaluation)(Optional)(Optional)
Area 2; 16#1111 : 16#FFFF
Area 2; 16#1121 : 16#FFFF
Area 2; 16#1131 : 16#FFFF
Area 2; 16#1141 : 16#BFBF

– 613 –JEM 1480:2023

Table 179 – Test table for interconnectability test [Class 3 (device level functions
implemented) and Class 4] (continued)
Setting
parameter(test data)(continued)

Data sent frommaster(continued)

Data sent from
slave

Test
equipment#6(continued)

Test
equipment#7

Simple setting area(for test equipment#7)

Reserved area(for test equipment#7)
Input data
Slave status
Actual slave type

Simple setting
confirmation area

Test
equipment#8

General-purpose
status area
Input data
Slave status
Actual slave type

Simple setting
confirmation area

Test
equipment#9

General-purpose
status area
Input data
Slave status
Actual slave type

Simple setting
confirmation area

Master node
numberinstructions
Slave operation
instructions
Mastercommand area
(Optional)

16#001E(Optional)(Optional)(Optional)(Optional)
Area 2; 16#0411 : 16#FFFF
Area 2; 16#0421 : 16#FFFF
Area 2; 16#0431 : 16#FFFF
Area 2; 16#0441 : 16#BFBFMaster node
16#001E
numberSlave operation (Optional)
setting
confirmation
statusMaster(Optional)
command area
(Optional)(Optional)(Optional)
Area 2; 16#0511 : 16#FFFF
Area 2; 16#0521 : 16#FFFF
Area 2; 16#0531 : 16#FFFF
Area 2; 16#0541 : 16#BFBFMaster node
16#00E6
numberSlave operation (Optional)
setting
confirmation
statusMaster(Optional)
command area
(Optional)(Optional)(Optional)
Area 2; 16#0612 : 16#FFFF
Area 2; 16#0622 : 16#FFFF
Area 2; 16#0632 : 16#FFFF
Area 2; 16#0642 : 16#AFFF
Area 2; 16#0652 : 16#008F
Master node
16#00E6
numberSlave operation (Optional)
setting
confirmation
statusMaster(Optional)
command area

JEM 1480:2023– 614 –

Table 179 – Test table for interconnectability test [Class 3 (device level functions
implemented) and Class 4] (continued)
Setting
parameter(test data)(continued)

Data sent fromslave
(continued)
Transmission
data inmessagetransmission

Received data
in message
transmission

Testequipment#9(continued)
Test
equipment#6

Test
equipment#6

General-purpose
status area

(Optional)

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

30

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

7.8.4

230

65 015 (message echo back request)
512
Arbitrary data specified by the test
equipment manufacturer (different foreach cycle)
23030

65 215 (message echo backresponse)
512
Arbitrary data specified by the test
equipment manufacturer (different foreach cycle)

Class 5The test table of interconnectability test for EUT of Class 5 is defined in Table 180.
Table 180 – Test table for interconnectability test (Class 5)
Major test group
Test procedure

Evaluation
criteria
Setting
parameter(node)

Interconnectability (when a Class 5 EUT is used)
Start the EUT and the test equipment (5 units), then start the network and leave it inoperation status (normal status).
Using test equipment #11, check for the message displayed which indicates the test has
been started.
Execute the Ping command in the configuration tool computer to superimpose IP
communication for the EUT.
The normal operation status continues for longer than 2 consecutive hours and no error isdisplayed for the message transmission echo back test or the device level test.
EUT #5
Implementation class
5 (fixed master)
Node number
100
Token watchdog time(100)
Allowable minimum(10)
frame interval time
Area 1 data top address 16#0100
Area 1 data size
192
Area 2 data top address 16#0400
Area 2 data size
768
Test
Test
Implementation class3 (controller)
equipment
equipment
Node number
200#11
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top address 0

– 615 –JEM 1480:2023

Table 180 – Test table for interconnectability test (Class 5) (continued)
Setting
parameter(node)(continued)

Test
equipment(continued)

Test
equipment#11(continued)
Test
equipment#12

Test
equipment#14

Test
equipment#15

Test
equipment#16

Area 1 data size
Area 2 data top address
Area 2 data size0
16#0800
32

Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Implementation class

5 (fixed master)
150
100
10

Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Number of IO of a slave
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Number of IO of a slave
Implementation class
Node number
Token watchdog time
Allowable minimum
frame interval time
Area 1 data top address
Area 1 data size
Area 2 data top address
Area 2 data size
Number of IO of a slave

16#01C064
16#0700
256
6 (operated in slave operation
mode (fixed))
150
10
16#0000
8
16#0000
32
Input: 128; Output: 64
7 (fixed slave)48
50
10
16#00BC4
16#02F016
Input: 32; Output: 48
7 (fixed slave)64
50
10
16#00FC4
16#03F016
Input: 64; Output: 32

JEM 1480:2023– 616 –

Table 180 – Test table for interconnectability test (Class 5) (continued)
Setting
parameter(test data)

Master output

EUT #5

Output data(for test equipment#14)
Remote control area(for test equipment#14)
Specified slave type(for test equipment#14)
Simple setting area(for test equipment#14)

Reserved area(for test equipment#14)
Output data(for test equipment#15)
Remote control area(for test equipment#15)
Specified slave type(for test equipment#15)
Simple setting area(for test equipment
#15)

Test
equipment#12

Slave input

Test
equipment#14

Reserved area (fortest equipment #15)
Output data (for test
equipment #16)
Remote control area(for test equipment#16)
Specified slave type(for test equipment#16)
Simple setting area(for test equipment#16)

Reserved area (fortest equipment #16)
Input data
Slave status
Actual slave type
Simple setting area

General-purpose
status area

(No evaluation)(No evaluation)

16#0401 : 16#FFBF in Area 2
16#0411 : 16#BF00 in Area 2
Master node number instructions = 0
or 100Slave operation instructions = (Noevaluation)
Master command area = (Noevaluation)(No evaluation)(No evaluation)(No evaluation)

16#9FAF

Master node number instruction = 0
or 100Slave operation instruction = (Noevaluation)
Master command area = (Noevaluation)(No evaluation)(Optional)(Optional)

16#BF9F

Master node number instructions =150
Slave operation instructions =(Optional)
Master command area = (Optional)(Optional)(Optional)(Optional)
16#0001 : 16#FFBF in Area 2
16#0011 : 16#BF00 in Area 2
Master node number = 100
Slave operation setting confirmation
status = (Optional)
Master command area = (Optional)(Optional)

– 617 –JEM 1480:2023

Table 180 – Test table for interconnectability test (Class 5) (continued)
Setting
parameter(test data)(continued)

Slave input(continued)

Test
equipment#15

Test
equipment#16

Transmission
data inmessagetransmission

Receipt of
messagetransmission

Testequipment#11

Test
equipment#11

Input data
Slave status
Actual slave type
Simple setting area

General-purpose
status area
Input data
Slave status
Actual slave type
Simple setting area

General-purpose
status area
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

(Optional)(Optional)
16#9FAF
Master node number = 100
Slave operation setting confirmation
status = (Optional)
Master command area = (Optional)(Optional)(Optional)(Optional)
16#BF9F
Master node number = 150
Slave operation setting confirmation
status = (Optional)
Master command area = (Optional)(Optional)
200
100

65 015 (message echo back request)
1024
Arbitrary data specified by the test
equipment manufacturer (different foreach cycle)
100
200

65 215 (message echo backresponse)
1024
Echoes back the contents of the data
sent from test equipment #11.

JEM 1480:2023

7.8.5– 618 –Class 6

The test table for the Class 6 EUT interconnectability test is defined in Table 181.
Table 181 – Test table for interconnectability test (Class 6)
Major test group
Test procedure

Evaluation
criteria
Setting
parameter(node)

Interconnectability (when a Class 6 EUT is used)
Start the EUT and the test equipment then start the network and leave it in operation status(normal status).
Using test equipment #6, check for the message displayed which indicates the test has
been started.
Execute the Ping command on the configuration tool computer to superimpose IP
communication for the EUT.
The normal operation status continues for longer than 2 consecutive hours and no error isdisplayed for the device-level network test and the message transmission test.
EUT #6
Implementation class6 (flexible slave)
Node number
180
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address 16#0000
Area 1 data size
0
Area 2 common memory setting
For input data
Area 2 data top address 16#0600
Area 2 data size
0 to 512 a)
For input status
Area 2 data top address 16#0600 to 16#0800 a)
Area 2 data size
16 to 2 048 a)
Test equipment Test
Implementation class3 (controller)
equipment
Node number
249#5
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top address 16#0028
Area 1 data size
8
Area 2 data top address 16#0140
Area 2 data size
64
Test
Implementation class4 (flexible master)equipment
Node number
30#6
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top address 16#0000
Area 1 data size
0
Area 2 data top address 16#1100
Area 2 data size
80
Test
Implementation class6 (flexible slave)equipment
Node number
80#7
Token watchdog time50

– 619 –JEM 1480:2023

Table 181 – Test table for interconnectability test (Class 6) (continued)
Setting
parameter(node)(continued)

Test equipment Test
(continued)
equipment#7(continued)

Test
equipment#8

Test
equipment#10

Setting
parameter(test data)

Data sent frommasterTestequipmen#6

Allowable minimum
10
frame interval time
Area 1 data top address 16#0000
Area 1 data size
0
Area 2 data top address 16#0400
Area 2 data size
80
Number of IO of a slave Input: 256; Output: 256
Implementation class6 (flexible slave)
Node number
130
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top address 16#0000
Area 1 data size
0
Area 2 data top address 16#0500
Area 2 data size
80
Number of IO of a slave Input: 256; Output: 256
Implementation class4 (flexible master)
Node number
230
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top address 16#0000
Area 1 data size
0
Area 2 common memory setting
For Node #130 output data
Area 2 data top address 16#11B0
Area 2 data size
16
For Node #130 output status
Area 2 data top address 16#11C0
Area 2 data size
64
For Node #180 output data
Area 2 data top address 16#1200
Area 2 data size
0 to 512 a)
For node #130 output status
Area 2 data top address 16#1200 to 16#1400 a)
Area 2 data size
16 to 2 048 a)
Output data (for test
(Optional)
equipment #7)
Remote control area
(Optional)(for test equipment #7)
Specified slave typeArea 2; 16#1111 : 16#FFFF(for test equipment #7)
Area 2; 16#1121 : 16#FFFF
Area 2; 16#1131 : 16#FFFF
Area 2; 16#1141 : 16#BFBFJEM 1480:2023– 620 –

Table 181 – Test table for interconnectability test (Class 6) (continued)
Setting
parameter(test data)(continued)

Data sent frommaster(continued)

Test
equipment#6(continued)

Test
equipment#10

Simple setting area(for test equipment#7)

Reserved area(for test equipment#7)
Output data (for test
equipment #8)
Remote control area(for test equipment#8)
Specified slave type(for test equipment#8)

Master node
16#001E
number instructions
Slave operation(Optional)
instructions
Master command(Optional)
area(Optional)(Optional)(Optional)

Area 2; 16#11C1 : 16#FFFF
Area 2; 16#11D1 : 16#FFFF
Area 2; 16#11E1 : 16#FFFF
Area 2; 16#11F1 : 16#BFBF

Simple setting area(for test equipment#8)

Reserved area (fortest equipment #8)
Output data (for the
EUT)
Remote control area(for the EUT)
Specified slave type(for the EUT)
Simple setting area(for the EUT)

Data sent from
slave

EUT

Reserved area (forthe EUT)
Input data
Slave status
Actual slave type
Simple setting
confirmation area

General-purpose
status area

Master node
16#00E6
number instructions
Slave operation(Optional)
instructions
Master command(Optional)
area(Optional)(Optional)(Optional)a)

Master node
16#00E6
number instructions
Slave operation(Optional)
instructions
Master command(Optional)
area(Optional)(No evaluation)
16#0001 or 16#0003
a)

Master node
numberSlave operation
setting confirmation
statusMaster commandarea(No evaluation)

16#00E6(No evaluation)(No evaluation)

– 621 –JEM 1480:2023

Table 181 – Test table for interconnectability test (Class 6) (continued)
Setting
parameter(test data)(continued)

Data sent fromslave
(continued)

Test
equipment#7

Input data
Slave status
Actual slave type

Simple setting
confirmation area

Test
equipment#8

General-purpose
status area
Input data
Slave status
Actual slave type

Simple setting
confirmation area

Transmission
data inmessagetransmission

Received data
in message
transmission

Testequipment#6

Test
equipment#6

General-purpose
status area
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Note a)This depends on the IO size of the EUT #6.

(Optional)(Optional)
Area 2; 16#0411 : 16#FFFF
Area 2; 16#0421 : 16#FFFF
Area 2; 16#0431 : 16#FFFF
Area 2; 16#0441 : 16#BFBFMaster node
16#001E
numberSlave operation(Optional)
setting confirmation
statusMaster command(Optional)
area(Optional)(Optional)(Optional)
Area 2; 16#0511 : 16#FFFF
Area 2; 16#0521 : 16#FFFF
Area 2; 16#0531 : 16#FFFF
Area 2; 16#0541 : 16#BFBFMaster node
16#00E6
numberSlave operation(Optional)
setting confirmation
statusMaster command(Optional)
area(Optional)
30
180

65 015 (message echo back request)
512
Arbitrary data specified by the test
equipment manufacturer (different foreach cycle)
18030

65 215 (message echo backresponse)
512
Arbitrary data specified by the test
equipment manufacturer (different foreach cycle)

JEM 1480:2023

7.8.6– 622 –Class 7

The test table for the Class 7 EUT interconnectability test is defined in Table 182.
Table 182 – Test table for interconnectability test (Class 7)
Major test group
Test procedure

Evaluation
criteria
Setting
parameter(node)

Interconnectability (incase EUT is Class 7)
Start the EUT and the test equipment (5 units), then start the network and leave it inoperation status (normal status).
Using test equipment #11, check for the message displayed which indicates the test has
been started.
Execute the Ping command on the configuration tool computer to superimpose IP
communication for the EUT.
The normal operation status continues for longer than 2 consecutive hours and no error isdisplayed for the message transmission echo back test or the device level test.
EUT #7
Implementation class
7(Fixed slave)
Node number
10
Token watchdog time
(50)
Allowable minimum(10)
frame interval time
Area 1 data top address 16#0024
Area 1 data size
Varies according to the number of
input points of the slave of the
EUT.
Area 2 data top address 16#0090
Area 2 data size
Varies according to the number of
input points and output points ofthe slave of the EUT.
Test
Test
Implementation class3 (controller)
equipment
equipment
Node number
200#11
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top address 0
Area 1 data size
0
Area 2 data top address 16#0800
Area 2 data size
32
Test
Implementation class
5 (fixed master)equipment
Node number
100#13
Token watchdog time100
Allowable minimum
10
frame interval time
Area 1 data top address 16#0100
Area 1 data size
256
Area 2 data top address 16#0400
Area 2 data size
1024
Test
Implementation class
6 (operating in slave operationequipmentmode (fixed))#14
Node number
1
Token watchdog time
50
Allowable minimum
10
frame interval time
Area 1 data top address 16#0000

– 623 –JEM 1480:2023

Table 182 – Test table for interconnectability test (Class 7) (continued)
Setting
parameter(node)(continued)

Test
equipment(continued)

Test
equipment#14(continued)

Area 1 data size
Area 2 data top address
Area 2 data size
Number of IO of a slave

Testequipment#15

Implementation classArea 1 data size
Area 2 data top address
Area 2 data size
Area 1 data size
Area 2 data top address
Area 2 data size
Area 1 data size
Number of IO of a slave
Implementation classArea 1 data size
Area 2 data top address
Area 2 data size
Area 1 data size
Area 2 data top address
Area 2 data size
Area 1 data size
Number of IO of a slave
Output data (for EUT#7)
Remote control area(for EUT #7)

Test
equipment#16

Setting
parameter(test data)

Master output

Test
equipment#13

Specified slave type(for EUT #7)
Simple setting area(for EUT #7)

Reserved area (for EUT#7)
Output data (for test
equipment #14)
Remote control area(for test equipment #14)
Specified slave type(for test equipment #14)
Simple setting area(for test equipment #14)

8
16#0000
32
Input points: 128, Output points:
64
7 (fixed slave)48
50
10
16#00BC4
16#02F016
Input points: 32; Output points: 48
7 (fixed slave)64
50
10
16#00FC4
16#03F016
Input points: 64; Output points: 32(Optional)
Set up in accordance with thenumber of input points and output
points of the slave of the EUT(Optional)
Master node number instructions =16#00 (default)
Slave operation instructions =(Optional)
Master command area =(Optional)(Optional)(Optional)(Optional)
16#0401 : 16#FFBF in Area 2
16#0411 : 16#BF00 in Area 2
Master node number instruction =16#00 (default)

JEM 1480:2023– 624 –

Table 182 – Test table for interconnectability test (Class 7) (continued)
Setting
parameter(test data)(continued)

Master output(continued)

Test
equipment#13(continued)

Simple setting area(for test equipment#14) (continued)
Reserved area (fortest equipment #14)
Output data (for test
equipment #15)
Remote control area(for test equipment#15)
Specified slave type(for test equipment#15)
Simple setting area(for test equipment#15)

Reserved area (fortest equipment #15)
Output data (for test
equipment #16)
Remote control area(for test equipment#16)
Specified slave type(for test equipment#16)
Simple setting area(for test equipment#16)

Slave input

EUT #7

Test
equipment#14

Reserved area (fortest equipment #16)
Input data
Slave status
Actual slave type
Simple setting area

General-purpose
status area
Input data
Slave status
Actual slave type

Slave operation instruction =(Optional)
Master command area = (Optional)(Optional)(Optional)(Optional)

16#9FAF

Master node number instruction =16#00 (default)
Slave operation instructions =(Optional)
Master command area = (Optional)(Optional)(Optional)(Optional)

16#BF9F

Master node number instructions =16#00 (default)
Slave operation instruction =(Optional)
Master command area = (Optional)(Optional)(No evaluation)
1 (stopped) or 3 (running)(No evaluation)
Master node number = 100
Slave operation setting confirmation
status = (No evaluation)
Master command area = (Noevaluation)(No evaluation)(Optional)(Optional)
16#0001 : 16#FFBF in Area 2
16#0011 : 16#BF00 in Area 2

– 625 –JEM 1480:2023

Table 182 – Test table for interconnectability test (Class 7) (continued)
Setting
parameter(test data)(continued)

Slave input(continued)

Transmission
data inmessagetransmission

Receipt of
messagetransmission

Testequipment#14(continued)

Simple setting area

Test
equipment#15

General-purpose
status area
Input data
Slave status
Actual slave type
Simple setting area

Test
equipment#16

General-purpose
status area
Input data
Slave status
Actual slave type
Simple setting area

Test
equipment#11

Test
equipment#11

General-purpose
status area
Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Node address ofsource side (SNA)
Node address ofdestination side
(DNA)
TCD
Data size
Contents of data

Reference

JIS B 3502

Master node number = 100
Slave operation setting confirmation
status = (Optional)
Master command area = (Optional)(Optional)(Optional)(Optional)
16#9FAF
Master node number = 100
Slave operation setting confirmation
status = (Optional)
Master command area = (Optional)(Optional)(Optional)(Optional)
16#BF9F
Master node number = 100
Slave operation setting confirmation
status = (Optional)
Master command area = (Optional)(Optional)
200
1065 015 (message echo back request)
1 024
Arbitrary data specified by the test
equipment manufacturer (different foreach cycle)
10200

65 215 (message echo backresponse)
1 024
Echoes back the contents of the data
sent from the test equipment #11.

Industrial-process measurement and control
controllers-Equipment requirements and tests-

Programmable

JEM 1480:2023– 626 –JEM 1480 ：2012

Testing Specifications for
FA Control Network [FL-net]
Explanation
This explanation describes items specified in the main body of this standard and matters related
to these items. It is not a part of this standard.

1
1.1

Purpose and history of establishment and amendment
Purpose of establishment

This standard was established in 2000 as test specifications to check the FL -net protocol
conformance of devices manufactured in accordance with JIS B 3521 (Protocol specification for
FA control network standard) or JEM 1479 (Protocol specification for FA control network
standard), and to check operation of these devices when used in combination with devices that
conform to JEM 1480 (hereinafter called “conforming devices”).
1.2

History of establishment

This standard is based on “FL-net conformance test specification version 1.1(established inAug./1999)” and “FL-net interconnectability test specification JOP-1010 version 1.0(established in 2/Aug/2000)” which are settled by the FA Control Committee of FA Open
Promotion Council of Manufacturing Science Technical Center (MSTC). In order to establish
this standard as a JEM standard, certain parts of the descriptions, namely those related tocertification we removed or modified.
This standard is designed to check the services, functions, and operations specified in Protocol
specification. The tests are divided into two parts: a conformance test and an interconnectability
test. The conformance test is conducted via peer -to-peer communication with an item of test
equipment. The interconnectability test checks consecutive operations with mul tiple items oftest equipment connected to the EUT.
1.3

Purpose of revisionThis standard was revised in April 1, 2002 along with revision of JIS B 3521 on which thisstandard is based.
The JIS B 3521 revision defines new token mode that shall be installed mandatory. In the token
mode, data of a token- attached cyclic frame is segregated into a frame with cyclic data and a
token-only frame. With the revision, this standard added related t est objects and amended
details of the test specification and descriptions.
In the 2006 revision, considering market trends for the network products according to JIS X
5252 on which FL-net is based, some of the test structures and the test procedures of thisstandard were revised to apply with 100 Mbps standard specified in JIS X 5252.
In the 2011 revision, this standard was revised along with the revisions made to JEM 1479.
JEM 1479:2011 allows superimposition of IP packets other than the FL -net protocol, and added
device level communication services. The function for communicating general -purpose
commands via UDP and TCP was also added to support common general-purpose setting tools.
Thus, this standard added a test for checking device level communication and general -purpose
command service communication to the conformance test. It also added tests for checking IP
communication superimposition and device level communication t o the interconnectability test.
The interconnectability test has no special test items related to the general -purpose setting toolconsidering it is good enough that the tool connected to the network is available.
In JEM 1479:2011, Classes 3 to 7 were added as implementation classes to supplement

– 627 –JEM 1480:2023

Classes 1 and 2. Thus, in this standard conformance test objects are defined by class. Because
different system structures are assumed for different classes in the interconnectability test, thenetwork configuration with test equipment has also been modifi ed.
The main points of the 2011 revision are as follows:a)

The test tables were drastically enhanced and modified in response to the expanded
specifications.

b)

The structure of the interconnectability tests was revised and organized by class.

c)

The descriptions and language used in this standard were modified or added accordingly.

In the 2012 revision, an increase in the number of classes was made in the 2011 revision. The
test tables for Class 1 and Class 2 were modified to improve their compatibility with the previous
version of this standard. The other test tables were also amend ed to correct errors and clarify
ambiguous points.
The main points of the 2012 revision are as follows:a)

Slave point ranges were added to the basic parameter ranges of the test (Table 4).

b)

The test tables carried over from the previous version (Test No.: V2-xxx) were modified to ensurecompatibility.

c)

The test tables for 6.4 Conformance Test were modified to clarify ambiguous points.

d)

The test tables for 7. Interconnectability Test were also modified to maintain compatibility withClass 1 and 2, and to clarify ambiguous points.

1.4

Overview of 2023 revision

In line with the product trend in the world, we reviewed the related test configuration and test
method to support the transmission speed of 1000 Mbps.

2

Major points of revision

The main points of the revision are as follows:a)6.1 Structure of conformance test and 7.1 Test structure
In accordance with support for 1000 Mbps, the cables used and the transmission speed werechanged. In addition, we standardized the test configuration for each communication speed, andset the test configuration to correspond to the communication speed according to EUT by setting
the hub.

3

Scope (Article 1)

In general, the tests for checking the functions and performance of network devices include anenvironmental test, a hardware test, a conformance test (in which each specification item for acommunication protocol is examined), and a test conducted in an e nvironment that resembles
a real network configuration, such as an interconnectability test.
The hardware test that checks electrical characteristics of the physical layer is not defined inthis standard because the definition of physical layer is outside the scope of JIS B 3521. Neither
are the environmental tests (weather endurance test, electri cal test, mechanical test, etc.)
defined because it is considered to be tested and checked according to the manufacturer’s
specification.
It is recommended that the manufacturer follow JIS B 3502 if the EUT is a programmablecontroller.

JEM 1480:2023

44.1– 628 –

Contents
Test objects of conformance test (6.2)

The “test objects” in Table 3 are checked by referring to Tables 7 through 160. Tables 7 through160 consist of test number, major test group, test group, test objects, test procedure, evaluation
criteria, test necessity identified by the EUT class, setting parameters (node), and setting
parameters (test data). A test is performed by assigning setting parameters (node) and setting
parameters (test data) to the EUT and test equipment, and then by operating the EUT and test
equipment in accordance with the test procedure. The test results are judged based on theevaluation criteria by checking the data of the EUT and the test equipment (through the use of
peripheral devices, such as the display of the EUT) and the communication frame record on the
network.
4.2

Conformance tester (6.4)

The test for checking communication protocols must examine all behavior in normal status andbehavior in abnormal status as defined in the respective protocol specifications. One common
method used to conduct this check is to establish a peer -to-peer connection between the EUT
and an item of test equipment that simulates normal and abnormal statuses. The behavior of
the EUT is analyzed and checked, and a report of the results is created. This particular method
is defined in this standard.
4.3

Performance measurement (6.7)

The purpose of Table 160 is to measure the time EUT begins to send tokens. No judgment isperformed based on the evaluation criteria.
4.4Interconnectability test (Article 7)

Unlike the conformance test, the interconnectability test does not conduct a check of thecommunication protocol. Even if a device passes the conformance test, it might still fail tooperate properly during actual use due to differences with lower communic ation layers, different
interpretations of ambiguous parts of specifications that cannot be detected in tests, and otherfactors. The interconnectability test in this standard places the EUT in an environment that
resembles a real environment, connecting it to test equipment which has been already verified
for conformance, and running consecutive tests. This approach makes it possible to detect the
problems described above.