PROGRAMMABLE CONTROLLER

PCB1INSTRUCTION MANUALPreface
Thank you for purchasing our programmable controller PCB1. This manual contains instructions for themounting, functions, operations and notes when operating the PCB1. To prevent accidents arising from themisuse of this controller, please ensure the operator receives this manual.
Abbreviations used in this manual
Abbreviation
PV

Term
Process variable

SV

Desired valueMV

Output manipulated variable

OUT1

Control output OUT1

OUT2

Control output OUT2AT

Auto-tuning

Characters used in this manual (/: No character is indicated)
Indication

!

0

1

2

3

4

5

6

7

8

9

-1

0

1

2

3

4

5

6

7

8

9

Indication

a

b

c

d

e

f

g

h

i

j

Alphabet

A

B

C

D

E

F

G

H

I

Indication

n

o

p

q

r

s

t

u

Alphabet

N

O

P

Q

R

S

T

U

Number,

/

C

f

k

l

m

J

K

L

M

v

w

x

y

z

V

W

X

Y

Z

Notes

• This instrument should be used in accordance with the specifications described in the manual.
If it is not used according to the specifications, it may malfunction or cause a fire.
• Be sure to follow the warnings, cautions and notices. If they are not observed, serious injury or malfunction
may occur.
• The contents of this instruction manual are subject to change without notice.
• Care has been taken to ensure that the contents of this instruction manual are correct, but if there are any
doubts, mistakes or questions, please inform our sales department.
• This instrument is designed to be installed through the control panel. If it is not, measures must be taken to
ensure that the operator cannot touch power terminals or other high voltage sections.
• Any unauthorized transfer or copying of this document, in part or in whole, is prohibited.
• Shinko Technos Co., Ltd. is not liable for any damage or secondary damage(s) incurred as a result of using
this product, including any indirect damage.

- 2 -Safety Precautions (Be sure to read these precautions before using our products.)

The safety precautions are classified into categories: “Warning” and “Caution”. Depending on circumstances,
procedures indicated by
Caution may result in serious consequences, so be sure to follow the directions
for usage.
which may lead to dangerous conditions and cause death or serious
Warning Procedures
injury, if not carried out properly.

CautionProcedures which may lead to dangerous conditions and cause superficial tomedium injury or physical damage or may degrade or damage the product, if not
carried out properly.

Warning• To prevent an electrical shock or fire, only Shinko or other qualified service personnel may handle theinner assembly.
• To prevent an electrical shock, fire or damage to the instrument, parts replacement may only beundertaken by Shinko or other qualified service personnel.

Safety Precautions• To ensure safe and correct use, thoroughly read and understand this manual before using this instrument.
• This instrument is intended to be used for industrial machinery, machine tools and measuring equipment.
Verify correct usage after purpose-of-use consultation with our agency or main office. (Never use this
instrument for medical purposes with which human lives are involved.)• External protection devices such as protective equipment against excessive temperature rise, etc. must be
installed, as malfunction of this product could result in serious damage to the system or injury to personnel.
Proper periodic maintenance is also required.
• This instrument must be used under the conditions and environment described in this manual. Shinko TechnosCo., Ltd. does not accept liability for any injury, loss of life or damage occurring due to the instrument being
used under conditions not otherwise stated in this manual.

Caution with Respect to Export Trade Control Ordinance

To avoid this instrument from being used as a component in, or as being utilized in the manufacture of
weapons of mass destruction (i.e. military applications, military equipment, etc.), please investigate
the end users and the final use of this instrument. In the case of resale, ensure that this instrument is
not illegally exported.

1. Installation Precautions
CautionThis instrument is intended to be used under the following environmental conditions(IEC61010-1): Overvoltage category , Pollution degree 2
Ensure the mounting location corresponds to the following conditions:• A minimum of dust, and an absence of corrosive gases• No flammable, explosive gases• No mechanical vibrations or shocks• No exposure to direct sunlight, an ambient temperature of -10 to 55 (14 to 131 ) that does notchange rapidly, and no icing• An ambient non-condensing humidity of 35 to 85 %RH• No large capacity electromagnetic switches or cables through which large current is flowing• No water, oil or chemicals or where the vapors of these substances can come into direct contact withthe unit• Please note that the ambient temperature of this unit – not the ambient temperature of the control
panel – must not exceed 55 (131 ) if mounted through the face of a control panel, otherwise the lifeof the electronic components (especially electrolytic capacitors) may be shortened.
Note: Avoid setting this instrument directly on or near flammable material even though
the case of this instrument is made of flame-resistant resin.
- 3 -2. Wiring Precautions
Caution• Do not leave wire remnants in the instrument, as they could cause a fire or malfunction.
• Use the solderless terminal with an insulation sleeve in which the M3 screw fits when wiring the
instrument.
• The terminal block of this instrument is designed to be wired from the left side. The lead wire must be
inserted from the left side of the terminal, and fastened with the terminal screw.
• Tighten the terminal screw using the specified torque. If excessive force is applied to the screw whentightening, the terminal screw or case may be damaged.
• Do not pull or bend the lead wire on the terminal side when wiring or after wiring, as it could cause
malfunction.
• This instrument does not have a built-in power switch, circuit breaker and fuse. It is necessary to installa power switch, circuit breaker and fuse near the controller.
(Recommended fuse: Time-lag fuse, rated voltage 250 V AC, rated current 2 A)
• For a 24 V AC/DC power source, do not confuse polarity when using direct current (DC).
• Do not apply a commercial power source to the sensor which is connected to the input terminal nor
allow the power source to come into contact with the sensor.
• Use a thermocouple and compensating lead wire according to the sensor input specifications of thiscontroller.
• Use the 3-wire RTD according to the sensor input specifications of this controller.
• For DC voltage input, (+) side input terminal number of 0 to 5 V DC, 1 to 5 V DC, 0 to 10 V DC differsfrom that of 0 to 1 V DC.
Terminal Number
21
22

DC Voltage Input(+) side of 0 to 5 V DC, 1 to 5 V DC, 0 to 10 V DC(+) side of 0 to 1 V DC

• When using a relay contact output type, externally use a relay according to the capacity of the load toprotect the built-in relay contact.
• When wiring, keep input wires (thermocouple, RTD, etc.) away from the AC power sources or load
wires.

3. Operation and Maintenance Precautions
Caution• It is recommended that AT be performed on the trial run.
• Do not touch live terminals. This may cause electrical shock or problems in operation.
• Turn the power supply to the instrument OFF before retightening the terminal or cleaning.
Working on or touching the terminal with the power switched ON may result in severe injury or death
due to electrical shock.
• Use a soft, dry cloth when cleaning the instrument.
(Alcohol based substances may tarnish or deface the unit.)• As the display section is vulnerable, be careful not to put pressure on, scratch or strike it with a hard
object.

- 4 -Contents

Page

1. Model ............................................................................................................................................................... 7
1.1 Model ....................................................................................................................................................... 7
1.2

How to Read the Model Label ............................................................................................................... 8

2. Names and Functions of Controller ............................................................................................................. 9
3. Mounting to the Control Panel ................................................................................................................... 12
3.1 External Dimensions (Scale: mm)..................................................................................................... 12
3.2

Panel Cutout (Scale: mm) ................................................................................................................... 12

3.3

CT (Current Transformer) External Dimensions (Scale: mm) ......................................................... 13

3.4 Mounting to, and Removal from, the Control Panel ........................................................................ 14
3.4.1 How to Mount the Unit .................................................................................................................... 14
3.4.2 How to Remove the Mounting Brackets and Unit ..................................................................... 15
4. Wiring ............................................................................................................................................................ 16
4.1 Terminal Arrangement ......................................................................................................................... 17
4.2

Lead Wire Solderless Terminal........................................................................................................... 18

4.3

When Using a Terminal Cover ............................................................................................................ 18

4.4

Wiring .................................................................................................................................................... 19

4.4.1 Power Supply................................................................................................................................. 19
4.4.2 Control Output OUT1 and OUT2 .................................................................................................. 19
4.4.3 Input ................................................................................................................................................ 20
4.4.4 Event Output EV1, EV2 and EV3.................................................................................................. 20
4.4.5 Insulated Power Output ................................................................................................................ 20
4.4.6 Serial Communication .................................................................................................................. 21
4.4.7 CT Input 1 and CT Input 2 ............................................................................................................ 23
4.4.8 Transmission Output .................................................................................................................... 24
4.4.9 Event Input DI1 and DI2 .............................................................................................................. 24
5. Outline of Key Operation and Each Mode ................................................................................................. 26
5.1 Outline of Key Operation .................................................................................................................... 26
5.2

Registering Settings and Selections ................................................................................................. 28

5.3

How to Read Setting Items ................................................................................................................. 28

6. Initial Settings ............................................................................................................................................... 29
7. Basic Settings and Operation ..................................................................................................................... 38
7.1 Procedure of Basic Settings and Operation ..................................................................................... 38
7.2

Program Pattern Setting ..................................................................................................................... 39

8. Explanation of Setting Items ....................................................................................................................... 44
8.1 Setting Items in Pattern Setting Mode ............................................................................................... 44
8.2

Setting Items in Event Setting Mode ................................................................................................. 49

8.3

Setting Items in Control Parameter Setting Mode ........................................................................... 55

8.4

Setting Items in Wait Parameter Setting Mode ................................................................................. 65

8.5

Setting Items in Engineering Setting Mode 1 ................................................................................... 69

8.6

Setting Items in Engineering Setting Mode 2 ................................................................................... 73

8.7

Clearing Data ........................................................................................................................................ 90

9. Operation ...................................................................................................................................................... 91
9.1 Performing Program Control .............................................................................................................. 91
9.1.1
9.1.2

Performing Program Control ....................................................................................................... 91
Stopping Program Control ........................................................................................................... 96- 5 -9.1.3 Suspending Program Control (Program Control HOLD Function).......................................... 97
9.1.4 Advancing Program Step (Advance Function).......................................................................... 98
9.1.5 Speeding up Program Step Time (Step Time Speed-up Function).......................................... 98
9.1.6 Changing Program Step SV and Step Time ............................................................................... 99
9.1.7 Ending Program (Pattern End Function) .................................................................................... 99
9.2 Performing Fixed Value Control ....................................................................................................... 100
9.2.1
9.2.2

Performing Fixed Value Control ................................................................................................ 100
Finishing Fixed Value Control ................................................................................................... 102

9.3

Switching Indication of the SV Display ........................................................................................... 103

9.4

Performing AT .................................................................................................................................... 104

9.4.1 Notice when Performing AT ....................................................................................................... 104
9.4.2 AT Action ...................................................................................................................................... 105
9.4.3 Performing AT .............................................................................................................................. 106
9.5 Input Value Correction ...................................................................................................................... 107
9.6

Items to be Initialized by Changing Settings .................................................................................. 109

10. Action Explanation ................................................................................................................................... 110
10.1 OUT1 Action ..................................................................................................................................... 110
10.2

OUT1 ON/OFF Control Action......................................................................................................... 110

10.3 Heater Burnout Alarm Action ..........................................................................................................111
10.4

Alarm Action .................................................................................................................................... 112

10.5

OUT2 (Heating/Cooling Control) Action ....................................................................................... 114

10.6

OUT2 (Heating/Cooling Control) Action (When Setting Dead Band) ....................................... 115

10.7

OUT2 (Heating/Cooling control) Action (When Setting Overlap band)...................................... 116

11. Specifications ........................................................................................................................................... 117
11.1 Standard Specifications .................................................................................................................. 117
11.2

Optional Specifications ................................................................................................................... 131

12. Troubleshooting ....................................................................................................................................... 134
12.1 Indication .......................................................................................................................................... 134
12.2 Key Operation .................................................................................................................................. 136
12.3 Control .............................................................................................................................................. 137
13. Character Table ........................................................................................................................................ 138
13.1 Error Code ........................................................................................................................................ 138
13.2

Pattern Setting Mode ....................................................................................................................... 139

13.3

Event Setting Mode ......................................................................................................................... 143

13.4 Control Parameter Setting Mode.................................................................................................... 145
13.5

Wait Parameter Setting Mode ......................................................................................................... 148

13.6

Engineering Setting Mode 1 ........................................................................................................... 150

13.7

Engineering Setting Mode 2 ........................................................................................................... 152

13.8 Data Clear ......................................................................................................................................... 158
14. Making Program Pattern Table and Data Table..................................................................................... 159
14.1 Making Program Pattern Table ....................................................................................................... 159
14.2

Making Data Table............................................................................................................................ 160

15. Key Operation Flowchart......................................................................................................................... 163- 6 -1. Model
1.1

Model
PCB1
Control
output
OUT1

0R
S
A

Power supply
voltage
Input

Relay contact output
Non-contact voltage output
Direct current output
100 to 240 V AC
24 V AC/DC
Multi-range
Option 1 not needed.
Event output EV2, or Heating/Cooling
EV2(DR) (*1)
control output OUT2 Relay contact output
Heating/Cooling control output OUT2DS
Non-contact voltage output
Heating/Cooling control output OUT2
DA
Direct current output
P24
Insulated power output
Event output EV3 + Event output EV2, orEV3(DR)
Heating/Cooling control output OUT2(*1), (*2)
Relay contact output
Event output EV3 + Heating/Cooling control
EV3DS (*2)
output OUT2 Non-contact voltage output
Event output EV3 + Heating/Cooling control
EV3DA (*2)
output OUT2 Direct current output

0
1
0
0
1
2
3

Option 1

4
5
6
7
0

Option 2 not needed.
Serial communication + Heater burnout
1
C5W(20A) (*3)
alarm output + Event input (*4)
Serial communication + Heater burnout
2
C5W(100A) (*3)
alarm output + Event input (*4)
3
EIW(20A) (*3)
Event input + Heater burnout alarm output
4
EIW(100A) (*3) Event input + Heater burnout alarm output
Option 2
Event input + Transmission output (4 – 20
5
EIT (*2)
mA DC)
Serial communication RS-485 + Event
6
C5
input (*4)
7
W(20A) (*3)
Heater burnout alarm output
8
W(100A) (*3)
Heater burnout alarm output
9
EI
Event input + Event output EV3(*1) When ‘Heating/Cooling control Relay contact output’ is selected in [Event output EV2 allocation],
it works as the DR option.
(*2) The EV3D option and EIT option cannot be ordered together.
(*3) When control output OUT1 is Relay contact output or Non-contact voltage output,
the C5W, EIW or W option can be ordered.
(*4) ‘SV digital transmission’ or ‘SV digital reception’ can be selected in [Communication protocol].

- 7 -

1.2

How to Read the Model Label
The model label is attached to the right side of the case.

①

②
③
④
⑤
⑥
⑦
(Fig. 1.2-1)
No.
①
②
③

Description
Terminal arrangement
Model
Option④⑤

Input
Control output,
Event output⑥

Power supply,Power consumption
Serial number⑦

ExampleTerminal arrangement of PCB1R00-52 (*1)
PCB1R00-52
EV3DR (Event output EV3 + Event output EV2, or
Heating/Cooling control output OUT2 Relay contact
output)C5W(100A) [Serial communication + Heater burnout
alarm output (100 A) + Event input] (*2)
MULTI-RANGE (Multi-range input)
O1: 3 A 250 V AC (Control output OUT1)
EV1: 3 A 250 V AC (Event output EV1)
O2: 3 A 250 V AC (Control output OUT2)
EV3: 3 A 250 V AC (Event output EV3)
100 to 240 V AC 50/60 Hz,
11 VA
No. 173F05000(*1) Terminal arrangement diagram differs depending on the model.
(*2) For Heater burnout alarm output (C5W, EIW, W options), CT rated current is entered in bracket ( ).

- 8 -

2. Names and Functions of Controller
①
②

③
④
⑤
⑥
⑦

⑧

⑯

⑨

⑮
⑩

⑪

⑫

⑬

⑭

(Fig. 2-1)
Display, Indicator
No.
①

Name
PV Display
(Red)

②

SV Display(Green)③

PTN/STEP Display(Orange)④

PTN indicator(Orange)
STEP indicator(Orange)
PTN/STEP indicator(Green)⑤⑥

Description
Indicates process variable (PV) in RUN mode.
Indicates setting characters in Setting mode.
Flashes during Wait action or program control HOLD in program
control.
Indicates the desired value (SV), Output manipulated variable (MV),or Remaining time (TIME) in RUN mode.
Retains display indication at power OFF.
Indicates the set values in setting mode.
Indicates the pattern number or step number.
Each time the DISP key is pressed, the PTN/STEP Display (③),
and the PTN/STEP indicator (⑥) alternately indicate the patternnumber and step number.
Flashes during Wait action or when the step number is indicated.
If ‘SV digital reception’ is selected in [Communication protocol],r is indicated.
Lights up when the pattern number is indicated on the PTN/STEP
Display.
Lights up when the step number is indicated on the PTN/STEP
Display.
LED for the pattern number or step number lights up.
If the PTN/STEP Display (③) indicates the pattern number, thePTN/STEP indicator (⑥) lights up its step number. If the PTN/STEP
Display indicates the step number, the PTN/STEP indicator lights
up its pattern number.
Each time the DISP key is pressed, the PTN/STEP indicator and the
PTN/STEP Display alternately indicate the pattern number and step
number.
- 9 -Action Indicator
No.
⑦

Name
OUT (Green)
RUN (Orange)
EV1 (Red)
EV2 (Red)

EV3 (Red)AT (Orange)
T/R (Orange)

Description
Lights up when control output OUT1 is ON.
For direct current output, flashes corresponding to the MV in 125 ms
cycles.
Lights up during program control RUN.
Flashes during program control HOLD or Fixed value control.
Lights up when Event output EV1 is ON.
Lights up when Event output EV2 [(EV2, EV3(DR) options] is ON.
Lights up when control output OUT2 [Cooling output (EV2, DS, DA or
EV3D option)] is ON.
For direct current output (DA, EV3DA options), flashes corresponding to
the MV in 125 ms cycles.
Lights up when Event output EV3 (EV3D , EI options) is ON.
Flashes while AT is performing.
Lights up during Serial communication (C5W, C5 options)
TX (transmitting) output.

Key
No.
⑧

Name
UP key⑨⑩

DOWN key
PTN key(Pattern key)⑪

FAST key⑫

DISP key(Display key)⑬

RUN key⑭

STOP key⑮

RST key(Reset key)
MODE key⑯

Description
In setting mode, increases the numerical value.
By pressing for approx. 1 second during program control RUN, time
progress pauses, and Fixed value control continues with the step SV atthat time (program control HOLD function).
In setting mode, decreases the numerical value.
During program control STOP (in Standby), selects program patternnumber to perform or to set.
By pressing during program control RUN, moves to Monitor mode.
In Monitor mode, switches the indication items.
In setting mode, makes the numeric value change faster.
During program control RUN, makes step time progress 60 times faster.
During RUN mode, the PTN/STEP display and PTN/STEP
indicator alternately indicates the pattern number and step number.
In setting mode, registers the setting data, and moves back to theprevious setting item.
Performs program control, or cancels program control HOLD while
program control is held.
By pressing for approx. 1 second during program control RUN, stops
performing step, and proceeds to the next step (Advance function).
Stops program control by pressing for approx. 1 second during program
control RUN.
Cancels pattern end output.
In setting mode, registers the setting data, and moves to RUN mode.
In setting mode, registers the setting data, and moves to the next setting
item.

- 10 -

Tool cable
CMD-001

Top view of the case⑰

(Fig. 2-2)
Connector
No.
⑰

Name
Tool cableconnector

Description
By connecting the Tool cable (CMD-001, sold separately), the following
operations can be conducted from an external computer, using theMonitoring software SWM-PCB101M.
Tool cable connector is at the top of the instrument.
• Reading and writing of step SV, step time, PID and various set values• Reading of PV and action status• Function change- 11 -

3. Mounting to the Control Panel
3.1

External Dimensions (Scale: mm)
GasketMounting
bracketTerminal cover(sold separately)( ): Size when mounting brackets or terminal cover (sold separately) are mounted.
(Fig. 3.1-1)
Panel Cutout (Scale: mm)

Caution

92＋0.80

If horizontal close mounting is used for the controller, IP66 specification (Drip-proof/Dust-proof)
may be compromised, and all warranties will be invalidated.

130

3.2

n×96-3 ＋0.5
0Horizontal close mounting
n: Number of mounted units□92＋0.8
0(Fig. 3.2-1)- 12 -

3.3

CT (Current Transformer) External Dimensions (Scale: mm)
CTL-6-S-H (for 20 A)

CTL-12-S36-10L1U (for 100 A)(Fig. 3.3-1)- 13 -

3.4 Mounting to, and Removal from, the Control Panel

CautionAs the case of the PCB1 is made of resin, do not use excessive force while tightening
screws, or the case and mounting brackets could be damaged.
The torque should be 0.1 N•m.
3.4.1

How to Mount the Unit

Mount the controller vertically to the flat, rigid panel to ensure it adheres to the Drip-proof/Dust-proof
specification (IP66).
If the horizontal close mounting is used for the controller, IP66 specification (Drip-proof/Dust-proof) may
be compromised, and all warranties will be invalidated.
Mountable panel thickness: 1 to 7 mm(1) Insert the controller from the front side of the control panel. (Fig. 3.4.1-1)
If the Drip-proof/Dust-proof specification (IP66) is not necessary, the gasket may be removed.
(Please keep in mind the warranty is void if gasket is removed).

Gasket(Fig. 3.4.1-1)- 14 -

(2) Attach the mounting brackets into the slots at the top and bottom of the case, and secure
the controller in place with the screws. (Fig. 3.4.1-2)
The torque is 0.1 N•m.

Screw type
mounting brackets(Fig. 3.4.1-2)
3.4.2

How to Remove the Mounting Brackets and Unit
(1) Turn the power to the unit OFF, and disconnect all wires before removing the unit.
(2) Loosen the screws of the mounting brackets, and remove the mounting brackets.
(3) Pull the unit out from the front of the control panel.

- 15 -

4. Wiring
Warning
Turn the power supply to the instrument off before wiring or checking.
Working on or touching the terminal with the power switched on may result in severe injury
or death due to electrical shock.

Caution• Do not leave wire remnants in the instrument, as they could cause a fire or malfunction.
• Use the solderless terminal with an insulation sleeve in which the M3 screw fits when wiring the
instrument.
• The terminal block of this instrument is designed to be wired from the left side. The lead wire must be
inserted from the left side of the terminal, and fastened with the terminal screw.
• Tighten the terminal screw using the specified torque. If excessive force is applied to the screw whentightening, the terminal screw or case may be damaged.
• Do not pull or bend the lead wire on the terminal side when wiring or after wiring, as it could cause
malfunction.
• This instrument does not have a built-in power switch, circuit breaker and fuse. It is necessary to installa power switch, circuit breaker and fuse near the controller.
(Recommended fuse: Time-lag fuse, rated voltage 250 V AC, rated current 2 A)
• For a 24 V AC/DC power source, do not confuse polarity when using direct current (DC).
• Do not apply a commercial power source to the sensor which is connected to the input terminal nor
allow the power source to come into contact with the sensor.
• Use a thermocouple and compensating lead wire according to the sensor input specifications of thiscontroller.
• Use the 3-wire RTD according to the sensor input specifications of this controller.
• For DC voltage input, (+) side input terminal number of 0 to 5 V DC, 1 to 5 V DC, 0 to 10 V DC differsfrom that of 0 to 1 V DC.
Terminal Number
21
22

DC Voltage Input(+) side of 0 to 5 V DC, 1 to 5 V DC, 0 to 10 V DC(+) side of 0 to 1 V DC

• When using a relay contact output type, externally use a relay according to the capacity of the load toprotect the built-in relay contact.
• When wiring, keep input wires (thermocouple, RTD, etc.) away from the AC power sources or load wires.

- 16 -

4.1

Terminal Arrangement(Fig. 4.1-1)
Terminal Code
PWR

Description
Supply voltage 100 to 240 V AC or 24 V AC/DC(For 24 V DC, ensure polarity is correct.)

O1

Control output OUT1

EV1

Event output EV1

EV2

Event output EV2 [EV2, EV3(DR) options]O2

Control output OUT2 (EV2, DS, DA, EV3D

P24

Insulated power output 24 V DC (P24 option)TC

Thermocouple input

RTD

RTD input

DC

Direct current, DC voltage input

CT1

CT (current transformer) input 1 (C5W, EIW, W options)CT2

CT (current transformer) input 2 (C5W, EIW, W options)RS-485

Serial communication RS-485 (C5W, C5 options)

EVENT INPUT

Event input DI1 (C5W, EIW, EIT, C5, EI options)

options)

Event input DI2 (C5W, EIW, EIT, C5, EI options)
EV3

Event output EV3 (EV3D , EI options)

TRANSMIT OUTPUT

Transmission output (EIT option)- 17 -

4.2

Lead Wire Solderless Terminal

5.8 mm max.

5.8 mm max.

Use a solderless terminal with an insulation sleeve in which an M3 screw fits as shown below.
The torque should be 0.63 N•m.
SolderlessTightening
Manufacturer
Model
Terminal
TorqueNichifu Terminal Industries Co., Ltd.
TMEV1.25Y-3
Y-typeJapan Solderless Terminal MFG Co., Ltd.
VD1.25-B3A
0.63 N･m
Nichifu Terminal Industries Co., Ltd.
TMEV1.25-3
Ring-type
Japan Solderless Terminal MFG Co., Ltd.
V1.25-3
3.2 mm

3.2 mm(Fig. 4.2-1)
4.3

When Using a Terminal CoverWhen using a terminal cover (sold separately), make sure the longer side is on the back left andright side of the case.
Pass the wires from terminal numbers 13 to 24 between terminal covers.

PCB1 top view

Terminal cover

Mount the longer
side of the cover tothe back left andright.

(Fig. 4.3-1)(Fig. 4.3-2)- 18 -

4.4

Wiring
For the terminal arrangement, refer to Section ‘4.1 Terminal Arrangement’ (p.17).

4.4.1 Power Supply
Power supply voltage is 100 to 240 V AC or 24 V AC/DC.
For a 24 V AC/DC power source, ensure polarity is correct when using direct current (DC).
100 to 240 V AC, 24 V AC

4.4.2

24 V DC

Control Output OUT1 and OUT2When EV2, DS, DA or EV3D option is ordered, control output OUT2 is available.
Specifications of Control output OUT1 and OUT2 are shown below.
Relay contact

Non-contact voltage(for SSR drive)
Direct current

Relay contact

1aControl capacity: 3 A 250 V AC (resistive load),
1 A 250 V AC (inductive load cos =0.4)
Electrical life: 100,000 cycles
Minimum applicable load: 10 mA 5 V DC
12 V DC 15%
Max. 40 mA (short circuit protected)
4 to 20 mA DC
Load resistance: Max. 550
Non-contact voltage,
Direct current

Number of Shinko SSR units when connected in parallel (for Non-contact voltage output):• SA-400 series: 5 units• SA-500 series: 2 units- 19 -

4.4.3

Input

Each input wiring is shown below.
Note: For DC voltage input, (+) side input terminal number of 0 to 5 V DC, 1 to 5 V DC, 0 to 10 V
DC differs from that of 0 to 1 V DC.

Thermocouple

4.4.4

Direct current,
DC voltage (0 to 1 V)

RTD

DC voltage(0 to 5 V,
1 to 5 V,
0 to 10 V)

Event Output EV1, EV2 and EV3
Event output EV1 is a standard feature.
Event output EV2 is available when EV2 or EV3(DR) option is ordered.
Event output EV3 is available when EV3D or EI option is ordered.
Specifications of Event output EV1, EV2 and EV3 are shown below.
Relay contact

Event Output EV1

4.4.5

1a
Control capacity: 3 A 250 V AC (resistive load)
1 A 250 V AC (inductive load cos =0.4)
Electrical life: 100,000 cycles
Minimum applicable load: 10 mA 5 V DC
Event Output EV2

Event Output EV3

Insulated Power Output
If P24 option is ordered, the Insulated power output is available.
Specifications of Insulated power output are shown below.
Output voltage
Ripple voltage
Max. load current

24 3 V DC (When load current is 30 mA DC)
Within 200 mV DC (When load current is 30 mA DC)
30 mA DC

Insulated Power Output- 20 -

4.4.6

Serial Communication
If the C5W or C5 option is ordered, Serial communication is available.
Serial Communication(1) Serial Communication• When using USB communication cable CMC-001-1 (sold separately)
USB communication cable
CMC-001-1 (sold separately)

PCB1
YA(-)
YB(+)
COM

⑩ YA(-)⑪ YB(+)⑫ SG

Host computer
USB port
Shield wire
⑩ YA(-)⑪ YB(+)⑫ SG

FG

Shield wireFG

⑩ YA(-)⑪ YB(+)⑫ SG(Fig. 4.4.6-1)• When using communication converter IF-400 (sold separately)
TXD

3

RXD

2

GND 5
DCD

1

DTR

4

DSR

6

RTS

7

CTS

8

RI

9

Communication converter IF-400 (sold separately)
RS-232C
RS-4854
3
1
6

Shield
wire

FG

PCA1
⑩ YA(-)⑪ YB(+)⑫ SG

Shield wireFG

Host computer
D-sub 9-pin connector⑩ YA(-)⑪ YB(+)⑫ SG

Shield wire

CDM

(Fig. 4.4.6-2)- 21 -FG⑩ YA(-)⑪ YB(+)⑫ SG

(2) SV digital transmission
If ‘SV digital transmission’ is selected in [Communication protocol]:Step SV can be digitally transmitted to the connected Shinko indicating controllers with thecommunication function (C5 option).
If ‘SV digital reception’ is selected in [Communication protocol]:Step SV can be received via SVTC command from the connected Shinko programmablecontrollers PCA1 or PCB1 (on which ‘SV digital transmission’ should be selected in[Communication protocol]).
Update cycle: 250 ms
Wiring
For the PCB1 and controllers with the communication function, connect YA (-) to YA (-), YB (+)
to YB (+), SG to SG terminal respectively.
Up to 31 units can be connected.
Wiring example of PCB1 and controllers with communication function
PCB1
YA(-) ⑩
YB(+) ⑪
SG ⑫

Shield
wire

YA(-)
YB(+)
SG
FG

Shield wire

FG

YA(-)
YB(+)
SG

Controllers with
communication
function(Max. 31 units)

Shield wire

FG

YA(-)
YB(+)
SG

(Fig. 4.4.6-3)
Shield wire
Connect only one end of the shield to the FG to avoid a ground loop. If both ends of the shield wire
are connected to the FG, the circuit will be closed, resulting in a ground loop. This may cause noise.
Be sure to ground the FG.
Recommended cable: OTSC-VB 2PX0.5SQ (made by Onamba Co., Ltd.) or equivalent (Use a twisted
pair cable.)- 22 -

4.4.7

CT Input 1 and CT Input 2
Current Transformer (CT) input is available when Heater burnout alarm output (C5W, EIW,
W options) is ordered.
Cannot be used for detecting heater current under phase control.
Current Transformer (CT) Input 1
Current Transformer (CT) Input 2

Use the CT (current transformer) provided, and pass one lead wire of the heater circuit
into the hole of the CT. (Fig. 4.4.7-1)
When wiring, keep the CT wire away from AC sources or load wires to avoid the externalinterference.
①②

CT1 input
terminals

CT
HeaterPower supply(Fig. 4.4.7-1)
When using 3-phase, pass any 2 lead wires of R, S, T into the CT, and connect them to
CT1 (①-②) and CT2 (②-③) terminals. (Fig. 4.4.7-2)①②③

HeaterCT1

CT1 input terminal
CT2 input terminal

R

S

CT2

T

(Fig. 4.4.7-2)- 23 -

Power supply

4.4.8Transmission Output
If the EIT option is ordered, Transmission output is available.
Specifications of Transmission output are shown below.
Resolution
OutputOutput accuracy
Response time

12000
4 to 20 mA DC
Load resistance: Max. 550
Within 0.3% of Transmission output span
400 ms + Input sampling period (0%→90%)

Transmission Output

Converting the value (PV, SV or MV transmission) to analog signal every 125 ms,
outputs the value in current. (Factory default: PV transmission)
Outputs Transmission output low limit value if Transmission output high limit and low limit value
are the same.
If SV or MV transmission is selected, 4 mA is output while in program control STOP (in Standby).
4.4.9 Event Input DI1 and DI2
When C5W, EIW, EIT, C5 or EI option is ordered, Event input DI1 or Event input DI2 is available.
Specifications of Event input are shown below.
Circuit current when closed

Approx. 16 mA

Event Input DI1,
Event input DI2

Signal edge action from OFF to ON / ON to OFF is engaged. However, when the power is turned
ON, level action is used except the Program control Advance function.
If the same item – except ‘Pattern number selection’ – is selected in [Event input DI1 allocation] and[Event input DI2 allocation], OR calculation [if any one is ON (Closed), the function activates] begins.
An action changed by Event input DI

has priority.

- 24 -

If ‘Pattern number selection’ is selected in [Event input DI1/DI2 allocation], Patterns 2 to 4 canbe selected by ON (Closed) or OFF (Open) status of Event input DI1 and DI2.
Pattern numbers selected by Event input have priority over pattern numbers selected by keypad
operation.
To select pattern numbers by keypad, make sure all Event inputs are in OFF (Open) status.
• When ‘Pattern number selection’ is selected only for Event input DI1:
Pattern number
Event input DI1*

2

OFF (Open)ON (Closed)* This number will be selected by keypad operation.
• When ‘Pattern number selection’ is selected for both Event input DI1 and DI2:
Pattern number

*

2

3

4

Event input DI1

OFF (Open)ON (Closed)

OFF (Open)ON (Closed)

Event input DI2

OFF (Open)OFF (Open)ON (Closed)

ON (Closed)* This number will be selected by keypad operation.

- 25 -

5. Outline of Key Operation and Each Mode
5.1

Outline of Key Operation

RUN Mode
Program control STOP
(in Standby)

RUN key (*1)
Program control RUN
STOP key(1 sec)Monitor Mode (*2)

PTN key

MV indication

PTN key

Setting Mode
MODE key

PTN key

RST key

Pattern setting
mode (*3)

MODE key
RST key

MODE key(3 sec)Event setting
mode (*3)+ MODE keys+
(3 sec)Remaining time
indication

keys+ MODE keys
(3 sec)+(3 sec)+ MODE keys+
(3 sec)+ STOP keys

Control parametersetting mode (*3)

MODE key
RST key
MODE key
RST key

Wait parametersetting mode (*3)

MODE key
RST keyEngineering
setting mode 1 (*3) MODE key
RST keyEngineering
setting mode 2 (*3) MODE key

Data clear (*4)

Automatically returns to RUN mode after data clear.

(*1) Select a pattern number with the PTN key, and press the RUN key. Program control will start.
(*2) Effective during Program control RUN.
(*3) If the MODE key is pressed, settings or selections are registered, and moves to the next setting item.
If the MODE key is pressed at the last setting item in each setting mode, the unit returns to the 1st setting item.
If the DISP key is pressed, settings or selections are registered, and moves back to the previous setting item.
If the DISP key is pressed at the 1st setting item in each setting mode, the unit moves back to the last setting
item.
(*4) Effective during program control STOP (in Standby).

(Fig. 5.1-1)- 26 -

ModesMode
RUN mode

Monitor mode

Setting mode

Description
If power is turned ON, the unit enters RUN mode.
Starts from program control STOP (in Standby) or Program control RUN,
depending on the status at power OFF.
Indication differs depending on the status below.
The PV Display indicates PV.
Program control
When the PTN indicator and STEP of the PTN/STEPSTOP (in Standby)
indicator is lit, the PTN/STEP Display indicates thepattern number.
While the PTN of the PTN/STEP indicator is lit, the PTN
indicator, the STEP indicator and the PTN/STEP Display
are unlit.
Other Displays and indicators are unlit.
The PV Display indicates PV.
Program control
The SV Display indicates SV, MV or remaining time.
RUN
The PTN indicator or STEP indicator lights up.
While the PTN indicator is lit, the PTN/STEP Display
indicates the pattern number. STEP of the PTN/STEP
indicator lights up.
While the STEP indicator is lit, the PTN/STEP Display
indicates the step number. PTN of the PTN/STEP
indicator lights up.
Action indicators light up depending on the operation
status.
By pressing the PTN key during program control RUN, the unit enters Monitor
mode. The PV Display indicates PV, and the SV Display indicates MV.
Each time the PTN key is pressed, SV, MV or remaining time is indicated.
Pattern setting mode Sets the following:
Step SV, Step time, PID block number, number ofrepetitions, pattern link.
Sets the following:
Event setting mode
EV alarm value, Time signal TS1 output OFF time,
Time signal TS1 output ON time
Sets the following:
Control parameter
AT Perform/Cancel, OUT1 proportional band, Integral
setting modetime, Derivative time, ARW, OUT2 proportional band
(When EV2, DS, DA or EV3D option is ordered),
Direct/Reverse action, Loop break alarm, etc.
Sets
the following:
Wait parameter
Wait value, Wait function Enabled/Disabled for each stepsetting mode
Sets the following:Set value lock, Sensor correction, PV filter time
constant, Communication parameters (When C5W or
C5 option is ordered)
Sets the following:
Engineering
Input type, Scaling high limit, Scaling low limit, Eventsetting mode 2
output EV allocation, Step time unit, Power restore
action, etc.
By pressing the,and STOP keys (in that order) together for approx. 3
seconds during program control STOP (in Standby), Data clear Yes/No appears.
To clear data, select YES, and press the MODE key. The PV Display indicates
init for approx. 3 seconds, and all data reverts to their factory default values.
Engineering
setting mode 1

Data clear- 27 -

5.2

Registering Settings and Selections• How to increase/decrease setting values
To increase or decrease the set value (numeric value), use theIf the

or

or

key.

key is pressed with the FAST key simultaneously, makes the numeric valuechange faster.
To switch the selection items, use the

or

key.

• How to register setting data or selection data
To register the settings or selections, use the MODE or DISP key.
If the MODE key is pressed, the set values (numerical values) or selected item are registered, andmoves to the next setting item.
If the MODE key is pressed at the last setting item, the unit returns to the 1st setting item.
If the DISP key is pressed, the set values (numerical values) or selected item are registered, andmoves back to the previous setting item.
If the DISP key is pressed at the 1st setting item, the unit moves back to the last setting item.
• How to return to RUN mode
To return to RUN mode, use the RST key.
If the RST key is pressed, the set values (numerical values) or selected item will be registered, andthe unit will revert to RUN mode.
5.3

How to Read Setting Items

Step 1 SV will be used for the explanation.
Explanation of setting items:• Upper left: PV Display: Indicates setting characters.
• Lower left: PTN/STEP Display, SV Display
The PTN/STEP Display indicates the pattern number or step number. Indication differs
depending on the setting item.
The SV Display indicates factory default value.
• Right side: Indicates the setting item or selection item, explanation of its function and setting range (orselection items).

PV Display

temp

1 ///0PTN/STEP Display

Setting item name, function, setting range (or selection item)

Step 1 SV• Sets Step 1 SV.
Step SV is the value at the end of the step.
• Setting range:
Scaling low limit to Scaling high limit
SV Display- 28 -

6. Initial Settings
Setup (setting the Input type, Scaling high limit, Scaling low limit, Event output EV1 allocation, Step time
unit, Power restore action, Direct/Reverse action, etc.) should be done before using this controller,
according to the user’s conditions.
Perform setup (or initial settings) in Engineering setting mode 2 and Control parameter setting mode.
Initial setting items and their factory default values are shown below in (Table 6-1).
If the user’s specification is the same as the factory default value of this instrument, or if user’s
instrument has already been installed in a system after initial settings are finished, initial settings are
not necessary.
Proceed to Section “7. Basic Settings and Operation” (p.38).
(Table 6-1)
Initial Setting ItemEngineering setting mode 2
Input type
Scaling high limit
Scaling low limit
Decimal point place
Event output EV1 allocation
Step time unit
Power restore action
Step SV when program control starts
Program control start type
Control parameter setting mode
OUT1 proportional cycle

Factory Default
K -200 to 1370
1370
-200
No decimal point
No event
Hours : Minutes
Stops after power is restored.
0
PV start
Relay contact output: 30 sec
Non-contact voltage output: 3 sec
Reverse action

Direct/Reverse action
The following shows the procedure for initial settings.

(1) Enter Engineering setting mode 2.
In RUN mode, press,
and MODE keys (in that order) together for approx. 3 seconds.
The unit will enter Engineering setting mode 2.
Characters,
Factory Default

sens/ k//C

Setting Item, Function, Setting Range
Input type
• Selects an input type from thermocouple (10 types), RTD (2 types), direct
current (2 types) and DC voltage (4 type), and the unit / .
• When changing the input from DC voltage to other inputs, remove thesensor connected to this controller first, then change the input. If the
input is changed with the sensor connected, the input circuit may break.
• When changing an input type, refer to Section “9.6 Items to be Initialized by
Changing Settings” (p.109).
• Selection item:
k//C K-200 to 1370
k//.C K
-200.0 to 400.0- 29 -

Characters,
Factory Default

stlh/ 1370stll/ -200Setting Item, Function, Setting Range
j//C J-200 to 1000
r//C R
0 to 1760
s//C S
0 to 1760
b//C B
0 to 1820
e//C E-200 to 800
T//.C T
-200.0 to 400.0
n//C N-200 to 1300
pl2C PL0 to 1390
c//C C(W/Re5-26) 0 to 2315
Pt/.C Pt100-200.0 to 850.0
jpt.C JPt100-200.0 to 500.0
pt/C Pt100-200 to 850
jptC JPt100-200 to 500
k//F K-328 to 2498
k//.f K
-328.0 to 752.0
j//f J-328 to 1832r//f R
32 to 3200
s//f S
32 to 3200
b//f B
32 to 3308
e//f E-328 to 1472
t//.f T
-328.0 to 752.0
n//f N-328 to 2372
pl2f PL32 to 2534
c//f C(W/Re5-26) 32 to 4199
pt/.f Pt100-328.0 to 1562.0
jpt.f JPt100-328.0 to 932.0
pt/f Pt100-328 to 1562
jptf JPt100-328 to 932
420a 4 to 20 mA-2000 to 10000
020a 0 to 20 mA-2000 to 10000
0/1v 0 to 1 V-2000 to 10000
0/5v 0 to 5 V-2000 to 10000
1/5v 1 to 5 V-2000 to 10000
010v 0 to 10 V
-2000 to 10000
Scaling high limit• Sets scaling high limit value.
• Setting range: Scaling low limit to Input range high limit
DC voltage, current inputs: -2000 to 10000 (The placement of the decimal
point follows the selection.)
Scaling low limit• Sets scaling low limit value.
• Setting range: Input range low limit to Scaling high limit
DC voltage, current inputs: -2000 to 10000 (The placement of the decimal
point follows the selection.)- 30 -

Characters,
Factory Default

dp/// ///0evo1/ /000Setting Item, Function, Setting Range
Decimal point place• Selects decimal point place.
• Selection item:///0 No decimal point//0.0 1 digit after decimal point/0.00 2 digits after decimal point
0.000 3 digits after decimal point
Available only when DC voltage or current input is selected in [Input type].
Event output EV1 allocation• Selects Event output EV1 from the table below.
• If Event output EV1 is changed, some setting items will be initialized. Refer to
Section “9.6 Items to be Initialized by Changing Settings” (p.109).
• Selection item:/000 No event/001 Alarm output, High limit alarm/002 Alarm output, Low limit alarm/003 Alarm output, High/Low limits alarm/004 Alarm output, High/Low limits independent alarm/005 Alarm output, High/Low limit range alarm/006 Alarm output, High/Low limit range independent alarm
/007
/008
/009
/010
/011
/012
/013

/014

Alarm output, Process high alarm
Alarm output, Process low alarm
Alarm output, High limit with standby alarm
Alarm output, Low limit with standby alarm
Alarm output, High/Low limits with standby alarm
Alarm output, High/Low limits with standby independent alarm
Heater burnout alarm output (when C5W, EIW or W option isordered):Detects load current value with CT (current transformer), andturns ON if it is lower than heater burnout alarm value.
Loop break alarm output:
Sets Loop break alarm time and band.
• About the Loop break alarm:
When the control action is Reverse (Heating) control:
If the PV does not reach the Loop break alarm band setting within
the time allotted to assess the Loop break alarm (after the MV hasreached 100% or the OUT1 high limit value), the alarm output will
be turned ON.
Likewise, if the PV does not drop to the Loop break alarm bandsetting within the time allotted to assess the Loop break alarm (after
the MV has reached 0% or the OUT1 low limit value), the alarm
output will be turned ON.
When the control action is Direct (Cooling) control:
If the PV does not drop to the Loop break alarm band setting within
the time allotted to assess the Loop break alarm (after the MV hasreached 100% or the OUT1 high limit value), the alarm output will
be turned ON.
- 31 -

Characters,
Factory Default

Setting Item, Function, Setting Range
Likewise, if the PV does not reach the Loop break alarm bandsetting within the time allotted to assess the Loop break alarm(after the MV has reached 0% or the OUT1 low limit value), thealarm output will be turned ON.
• When EV2 option (If “/020: Heating/Cooling control output”
is selected in [Event output EV2 allocation]) is ordered, orwhen DS, DA or EV3D option is ordered.
When the control action is Reverse (Heating) control:
After OUT1 MV has reached 100% or the OUT1 high limit value, orafter OUT2 MV has reached 0% or -(OUT2 low limit value), if the
PV does not reach the Loop break alarm band setting within thetime allotted to assess the Loop break alarm, the alarm output will
be turned ON.
Likewise, after OUT1 MV has reached 0% or the OUT1 low limit
value, or after OUT2 MV has reached -100% or -(OUT2 high limit
value), if the PV does not drop to the Loop break alarm band setting
within the time allotted to assess the Loop break alarm, the alarm
output will be turned ON.

/015

/016
/017

/018

/019

When the control action is Direct (Cooling) control:
After OUT1 MV has reached 100% or the OUT1 high limit value, orafter OUT2 MV has reached 0% or -(OUT2 low limit value), if the
PV does not drop to the Loop break alarm band setting within thetime allotted to assess the Loop break alarm, the alarm output will
be turned ON.
Likewise, after OUT1 MV has reached 0% or the OUT1 low limit
value, or after OUT2 MV has reached -100% or -(OUT2 high limit
value), if the PV does not reach the Loop break alarm band setting
within the time allotted to assess the Loop break alarm, the alarm
output will be turned ON.
Time signal output:
Turns ON during program control RUN, by setting Time signal
output OFF time and ON time within total time in one pattern.
Output during AT: Turns ON during AT.
Pattern end output:
Turns ON after Program control ends, and remains ON during
the time set in [Pattern end output time].
Output by communication command:
Communication command 8004H B0 EV1 output 0: OFF, 1: ON
B1 EV2 output 0: OFF, 1: ON
B2 EV3 output 0: OFF, 1: ON
RUN output: Turns ON during program control RUN.

When /001 (High limit alarm) to /012 (High/Low limits with standby independent alarm) or/015 (Time signal output) is selected, one alarm can be set to one event output.
When /013 (Heater burnout alarm output), /014 (Loop break alarm output) or /016
(Output during AT) to /019 (RUN output) are selected, each output is common to multiple
event outputs.

- 32 -

• Alarm output
EV1 alarm output actions are shown below.
 High limit alarm Low limit alarm
EV1 hysteresis

EV1 hysteresis

ON

ON

OFF

OFF
-EV1 value

SV+EV1 value-EV1 value(Fig. 6-1)

SV +EV1 value(Fig. 6-2)

 High/Low limits alarm High/Low limits independent alarm
EV1 hysteresis

EV1 hysteresis

ON

ON

OFF

OFF
EV1 valueSV

EV1 value

EV1 low limit value(Fig. 6-3)

SV

(Fig. 6-4)

 High/Low limit range alarm High/Low limit range independent alarm

EV1 hysteresis

EV1 hysteresis

ON

ON

OFF

OFF
EV1 value

SV EV1 value

EV1 low limit value(Fig. 6-5)

SV

(Fig. 6-6)

 Process high alarm Process low alarm

EV1 hysteresis

EV1 hysteresis

ON

ON

OFF

OFF
EV1 valueEV1 value(Fig. 6-7)

(Fig. 6-8)

- 33 -

 High limit with standby alarm Low limit with standby alarm

EV1 hysteresis

EV1 hysteresis

ON

ON

OFF

OFF
-EV1 value

SV+EV1 value-EV1 value

SV

Alarm output is in standby.

Alarm output is in standby.

(Fig. 6-9)

(Fig. 6-10)

 High/Low limits with standby alarm High/Low limits with standby independent alarm

EV1 hysteresis

EV1 hysteresis

ON

ON

OFF

OFF
EV1 value+EV1 valueSV

EV1 value

EV1 low limit value

Alarm output is in standby.
(Fig. 6-11)

SV EV1

Alarm output is in standby.
(Fig. 6-12)• Time signal output
Time signal output OFF time and Time signal output ON time are set within total time in one pattern.
After program control starts, Time signal output turns ON during Time signal output ON time after
Time signal output OFF time has elapsed.
During Wait action or program control HOLD, progress time of Time signal output stops.
When step time is changed during program control RUN, Time signal output timing is re-calculatedusing the changed pattern time.

- 34 -Example of program pattern setting
Pattern 1
Step number
1

2

3

4

5

500
1:00

1000
0:40

1000
1:00

0
2:00

1000

500

0
Step SV
Step time
Time signal output

ON
OFF

Program control RUN

500
0:30

ON after 1 hour

OFF after 50 minutes(e.g.) Time signal output setting
Time signal output OFF time: 1 hourTime signal output ON time: 50 minutes(Fig. 6-13)
Explanation of Time signal output
In the above program pattern example, Time signal output turns ON one hour after program control
RUN starts (30 minutes after the unit entered Step 2). Time signal output turns OFF 50 minutes
after Time signal output turned ON (20 minutes after the unit entered Step 3).
Characters,
Factory Default

Setting Item, Function, Setting Range

Press the MODE key multiple times until the following characters appear.

m_s// min/

Step time unit
• Selects the Step time unit.
• Selection item:
min/ Hours : Minutes
sec/ Minutes : Seconds- 35 -

Characters,
Factory Default

pret/ stopSetting Item, Function, Setting Range
Power restore action• If the power fails during program control RUN, the controller can be operated
depending on the selection in [Power restore action].
• Selection item:
stop Stops after power is restored:
After power is restored, stops current program control, and returns
to the program control STOP (in Standby).
cont Continues after power is restored:
After power is restored, continues (resumes) previous program
control.
hold Suspends after power is restored
After power is restored, suspends (on hold) current program
control, and performs Fixed value control using the step SV at thetime of suspension.

s_sv/ ///0s_sl/ pv//

Pressing the RUN key cancels suspension, and Program control
resumes.
Step SV when program control starts• Sets step SV when program control starts.
• Setting range:
Scaling low limit to Scaling high limit (The placement of the decimal point
follows the selection.)
Program control start type
• Program control start type can be selected.
• Selection item:
pv// PV start
Only when program control starts, the step SV and step time are
pvr/

advanced to the PV, then program control starts.
PVR start
When program control starts and in pattern repeating, the step
SV and step time are advanced to the PV, then program control
starts.

sv//

SV start
Program control starts from the value set in [Step SV when
program control starts].

Press the RST key. The unit returns to RUN mode.
(2) Enter Control parameter setting mode.
In RUN mode, press theparameter setting mode.
Characters,
Factory Defaultat/// ----and MODE keys (in that order) together. The unit enters Control

Setting Item, Function, Setting Range
AT Perform/Cancel
Do not perform AT during initial settings.
- 36 -

Characters,
Factory Default

Setting Item, Function, Setting Range

Press the MODE key multiple times until the following characters appear.

c//// ///3

OUT1 proportional cycle• Sets OUT1 proportional cycle.
• For the relay contact output type, if the proportional cycle time is decreased, thefrequency of the relay action increases, and the life of the relay contact isshortened.
Factory default value differs depending on the output type as follows:
Relay contact output type: 30 seconds
Non-contact voltage output type: 3 seconds
Direct current output type: Not available• Setting range:
0.5, 1 to 120 seconds
Available when OUT1 is relay contact output or non-contact voltage output.

Press the MODE key multiple times until the following characters appear.

cont/ heatDirect/Reverse action• Selects either Direct (Cooling) or Reverse (Heating) control action.
Direct action:
In Direct action, MV is increased when PV is higher than SV (positive deviation).
Refrigerators perform Direct action.
MV

Low

SV

High

PV

(Fig. 6-14)
Reverse action:
In Reverse action, MV is increased when SV is higher than PV (negative
deviation).
Electric furnaces perform Reverse action.
MV

Low

SV

High

PV

(Fig. 6-15)• Selection item:heat Reverse action
cool Direct action
Press the RST key. The unit returns to RUN mode.
At this stage, the initial settings are complete.
Refer to Sections ‘7. Basic Settings and Operation (p.38)’ and ‘8. Explanation of Setting Items (p.44)’.
- 37 -

7. Basic Settings and Operation
7.1

Procedure of Basic Settings and Operation

Power ON
Program patternsetting
Pattern setting(pp.44 - 48)

Sets program pattern.

PID block, Wait
value setting
Control parameters(pp.55 - 64)

Sets PID, ARW, etc.

Wait parameters(pp.65 - 68)

Sets Wait value, and Wait function
Enabled/Disabled for each step.

Test operation

Turn the load power ON, andperform test operation.

AT Perform(pp.104 - 106)

Performs AT.

RUN(Fig. 7.1-1)- 38 -

7.2

Program Pattern Setting• Example of Program Pattern Setting
Pattern 1
Step number

1

2

3

500
0:30
2
Enabled500
1:00
2Disabled

1000
0:40
3
Enabled

4

5

1000

500

0
Step SV
Step time
PID block number
Wait function Enabled/Disabled

1000
0
1:00
2:00
3
2
Disabled Disabled(Fig. 7.2-1)
Explanation of Program Pattern
Step 1: After program control starts, control is performed so that SV gradually rises from 0
to 500 in 30 minutes.
Step 2: Control is performed to keep the SV at 500 for 1 hour.
Step 3: Control is performed so that SV gradually rises from 500 to 1000 for 40 minutes.
Step 4: Control is performed to keep the SV at 1000 for 1 hour.
Step 5: Control is performed so that SV gradually falls from 1000 to 0 in 2 hours.
• Example of PID Block Setting
If program pattern is not set for a step, its PID block number becomes 1 (factory default).
We highly recommend that you leave the factory defaults of PID block 1 as they are, andset the values from Block 2.
Control parameters such as PID, ARW are common to all patterns.
Blocknumber1
2
3

OUT1
proportionalband
10
10 (*)
10 (*)

Integraltime

Derivative
time

ARW

200 sec
200 sec (*)
200 sec (*)

50 sec50 sec (*)
50 sec (*)

50%
50% (*)
50% (*)

OUT2
proportionalband
10
10 (*)
10 (*)(*) Setting items in PID block are determined after performing AT. So, they are currently factory default values.

• Example of Wait Value Setting
Wait value: 10
Wait value is common to all steps of each pattern.
- 39 -

The operation method is described below, based on the program pattern, PID block and wait value
settings.
Power ON

RUN modePower ON

RUN mode
Program control STOP (in Standby)//25

1 ////

MODE key
Program patternsetting
Pattern setting

Pattern setting mode
Step 1 SV

temp

1 ///0PTN/STEP

p.

or

key
500

temp

1 /500PTN/STEPp.

MODE key
Step 1 timetime

1 00:00
PTN/STEP

p.

or

key
00:30

time

1 00:30
PTN/STEPp.

MODE key
Step 1
PID block number_pid

1 ///1
PTN/STEPp.

or

PID block 2_pid

1 ///2
PTN/STEPp.

MODE key- 40 -

key

Step 2 SV

temp

1 ///0PTN/STEP

p.

or

key
500

temp

1 /500PTN/STEPp.

MODE key
Step 2 timetime

1 00:00
PTN/STEP

p.

or

key
01:00

time

1 01:00
PTN/STEPp.

MODE key
Step 2
PID block number_pid

1 ///1
PTN/STEP

p.

or

key
PID block 2_pid

1 ///2
PTN/STEPp.

MODE key
Repeat settings up to ‘Step 5 PID
block number’.
Step 5
PID block number
PID block 2_pid

1 ///2
PTN/STEPp.

RST key- 41 -

RUN mode

RUN mode
Program control STOP (in Standby)//25

1 ////+

keys (3 sec)

Wait value
setting
Wait parameter

Wait parameter setting mode
Wait value

wait

1 ///0
or

key
10

wait

1 //10
MODE key
Step 1
Wait function Enabled/Disabledwait

1 ---PTN/STEP

p.

or

key
Wait function Enabled

wait

1 use/
PTN/STEPp.

MODE key
Repeat settings up to ‘Step 5 Wait
function Enabled/Disabled’.

Step 5
Wait function Enabled/Disabled
Wait function Enabled

wait

1 use/
PTN/STEPp.

RST keyAt this stage, settings are complete.

RUN mode//25

1 ////
PTN key- 42 -

RUN mode
Program control STOP (in Standby)

Select a pattern number to perform.
Press the PTN key to select a pattern.

//25

1 ////

RUN key Turn the load power ON, and press the
RUN key for test operation.
Test operation//25

1 //25

PTN/STEP
indicator 1 lights up.

Test operation starts (Program control
RUN).
(e.g.) Perform AT at Step 2 as its step
SV is constant.
Press the RUN key for approx. 1 sec.

RUN key (1 sec)
Moves to Step 2.

/500

1 /500PTN/STEP
indicator 2 lights up.

+ MODE keys
AT Perform

AT Perform/Cancel

at//1 ----

PTN/STEP
indicator 2 lights up.

or

at//

key
AT Perform

1 at//

PTN/STEP
indicator 2 lights up.

RST key/500

1 /500PTN/STEP
indicator 2 lights up.

RUN mode//25

1 ////
RUN key
RUN//25

1 //25

PTN/STEP
indicator 1 lights up.

- 43 -

RUN mode
During AT Perform, the AT indicator
flashes. After AT is finished, the AT
indicator turns off.
As PID block 3 is selected for Step 4,
perform AT for Step 4.
Program control END
Returns to RUN mode [Program
control STOP (in Standby)].
Program control starts (Program
control RUN).

8. Explanation of Setting Items

Setting items for the following mode will be described:
Pattern setting mode, Event setting mode, Control parameter setting mode, Wait parameter setting
mode, Engineering setting mode 1, Engineering setting mode 2.

8.1

Setting Items in Pattern Setting Mode
In Pattern setting mode, the following items are set:
Step SV, Step time, PID block number, Number of repetitions, pattern link
Settings are performed for the pattern selected at the time of entering Pattern setting mode.
During program control RUN, settings are possible only for the currently performing pattern.
If ‘Pattern link Enabled’ is selected in [Pattern link]: Even if the performing pattern is changed from 1
to 2 during pattern setting mode, Pattern 1 will be remained, and the pattern number will not be updated
until the unit reverts to RUN mode.
• Before entering Pattern setting mode
Select a pattern number with the PTN key before entering Pattern setting mode.
• To enter Pattern setting mode
In RUN mode, press the MODE key. The unit enters Pattern setting mode.
Pattern 1 is used for the explanation of setting items in Pattern setting mode.
Characters,
Factory Default

temp

1 ///0PTN/STEP
indicator 1lights up.

time

1 00:00
PTN/STEP
indicator 1lights up.

Setting Item, Function, Setting Range
Step 1 SV• Sets Step 1 SV.
Step SV is a value (SV) at the end of the step.
• Setting range:
Scaling low limit to Scaling high limit
Step 1 time
• Sets Step 1 time.
Step time is the processing time of the step.
• Setting range:----, 00:00 to 99.59 (Time unit follows the selection in [Step time unit].)If thekey is pressed at 00:00, ---- will appear.
If ---- is set, Fixed value control will be performed using Step 1 SV.

_pid

Step 1 PID block number• Selects PID block number used for Step 1.

PTN/STEP• Selection item:

indicator 1lights up.

1 to 10temp

Step 2 SV• Sets Step 2 SV.

1 ///1

1 ///0PTN/STEP
indicator 2lights up.

Step SV is a value (SV) at the end of the step.
• Setting range:
Scaling low limit to Scaling high limit- 44 -

Characters,
Factory Default

Setting Item, Function, Setting Range

time

Step 2 time
• Sets Step 2 time.

PTN/STEP

Step time is the processing time of the step.

indicator 2lights up.

• Setting range:

1 00:00----, 00:00 to 99.59 (Time unit follows the selection in [Step time unit].)If thekey is pressed at 00:00, ---- will appear.

If ---- is set, Fixed value control will be performed using Step 2 SV.

_pid

Step 2 PID block number

PTN/STEP
indicator 2• Selection item:

1 ///1lights up.

temp

1 ///0PTN/STEP
indicator 3
lights up.

time

1 00:00• Selects PID block number used for Step 2.
1 to 10
Step 3 SV• Sets Step 3 SV.
Step SV is a value (SV) at the end of the step.
• Setting range:
Scaling low limit to Scaling high limit
Step 3 time
• Sets Step 3 time.

PTN/STEP

Step time is the processing time of the step.

indicator 3
lights up.

• Setting range:----, 00:00 to 99.59 (Time unit follows the selection in [Step time unit].)If the_pid

1 ///1
PTN/STEP
indicator 3
lights up.

key is pressed at 00:00, ---- will appear.

If ---- is set, Fixed value control will be performed using Step 3 SV.
Step 3 PID block number• Selects PID block number used for Step 3.
• Selection item:
1 to 10temp

Step 4 SV• Sets Step 4 SV.

PTN/STEP

Step SV is a value (SV) at the end of the step.

indicator 4lights up.

• Setting range:

1 ///0time

Scaling low limit to Scaling high limit
Step 4 time
• Sets Step 4 time.

PTN/STEP

Step time is the processing time of the step.

indicator 4lights up.

• Setting range:

1 00:00----, 00:00 to 99.59 (Time unit follows the selection in [Step time unit].)If thekey is pressed at 00:00, ---- will appear.

If ---- is set, Fixed value control will be performed using Step 4 SV.

- 45 -

Characters,
Factory Default

Setting Item, Function, Setting Range_pid

Step 4 PID block number

PTN/STEP• Selection item:

indicator 4lights up.

1 to 10temp

Step 5 SV• Sets Step 5 SV.

1 ///1

1 ///0PTN/STEP
indicator 5
lights up.

• Selects PID block number used for Step 4.

Step SV is a value (SV) at the end of the step.
• Setting range:time

Scaling low limit to Scaling high limit
Step 5 time
• Sets Step 5 time.

PTN/STEP

Step time is the processing time of the step.

indicator 5
lights up.

• Setting range:

1 00:00----, 00:00 to 99.59 (Time unit follows the selection in [Step time unit].)If thekey is pressed at 00:00, ---- will appear.

_pid

If ---- is set, Fixed value control will be performed using Step 5 SV.
Step 5 PID block number• Selects PID block number used for Step 5.

PTN/STEP• Selection item:

indicator 5
lights up.

1 to 10temp

Step 6 SV

PTN/STEP

Step SV is a value (SV) at the end of the step.

indicator 6
lights up.

• Setting range:

1 ///1

1 ///0• Sets Step 6 SV.

time

Scaling low limit to Scaling high limit
Step 6 time
• Sets Step 6 time.

PTN/STEP

Step time is the processing time of the step.

indicator 6
lights up.

• Setting range:

1 00:00----, 00:00 to 99.59 (Time unit follows the selection in [Step time unit].)If thekey is pressed at 00:00, ---- will appear.

_pid

If ---- is set, Fixed value control will be performed using Step 6 SV.
Step 6 PID block number• Selects PID block number used for Step 6.

PTN/STEP• Selection item:

indicator 6
lights up.

1 to 10temp

Step 7 SV• Sets Step 7 SV.

PTN/STEP

Step SV is a value (SV) at the end of the step.

indicator 7
lights up.

• Setting range:

1 ///1

1 ///0

Scaling low limit to Scaling high limit- 46 -

Characters,
Factory Default

Setting Item, Function, Setting Range

time

Step 7 time

PTN/STEP
indicator 7

Step time is the processing time of the step.

1 00:00

lights up.

• Sets Step 7 time.
• Setting range:----, 00:00 to 99.59 (Time unit follows the selection in [Step time unit].)If the_pid

1 ///1
PTN/STEP
indicator 7
lights up.

key is pressed at 00:00, ---- will appear.

If ---- is set, Fixed value control will be performed using Step 7 SV.
Step 7 PID block number• Selects PID block number used for Step 7.
• Selection item:
1 to 10temp

Step 8 SV

PTN/STEP
indicator 8

Step SV is a value (SV) at the end of the step.

1 ///0lights up.

time

1 00:00
PTN/STEP
indicator 8lights up.

• Sets Step 8 SV.
• Setting range:
Scaling low limit to Scaling high limit
Step 8 time
• Sets Step 8 time.
Step time is the processing time of the step.
• Setting range:----, 00:00 to 99.59 (Time unit follows the selection in [Step time unit].)If the_pid

1 ///1
PTN/STEP
indicator 8lights up.

If ---- is set, Fixed value control will be performed using Step 8 SV.
Step 8 PID block number• Selects PID block number used for Step 8.
• Selection item:
1 to 10temp

Step 9 SV• Sets Step 9

PTN/STEP
indicator 9SV.

1 ///0lights up.

time

1 00:00
PTN/STEP
indicator 9lights up.

key is pressed at 00:00, ---- will appear.

Step SV is a value (SV) at the end of the step.
• Setting range:
Scaling low limit to Scaling high limit
Step 9 time
• Sets Step 9 time.
Step time is the processing time of the step.
• Setting range:----, 00:00 to 99.59 (Time unit follows the selection in [Step time unit].)If thekey is pressed at 00:00, ---- will appear.

If ---- is set, Fixed value control will be performed using Step 9 SV.

- 47 -

Characters,
Factory Default

Setting Item, Function, Setting Range_pid

Step 9 PID block number

PTN/STEP• Selection item:

indicator 9lights up.

1 to 10temp

Step 10 SV• Sets Step 10 SV.

1 ///1

1 ///0PTN/STEP
indicator 10
lights up.

• Selects PID block number used for Step 9.

Step SV is a value (SV) at the end of the step.
• Setting range:time

Scaling low limit to Scaling high limit
Step 10 time
• Sets Step 10 time.

PTN/STEP

Step time is the processing time of the step.

indicator 10
lights up.

• Setting range:

1 00:00----, 00:00 to 99.59 (Time unit follows the selection in [Step time unit].)If thekey is pressed at 00:00, ---- will appear.

_pid

If ---- is set, Fixed value control will be performed using Step 10 SV.
Step 10 PID block number• Selects PID block number used for Step 10.

PTN/STEP• Selection item:

indicator 10
lights up.

1 to 10

rept

Number of repetitions

1 ///1

1 ///0PTN/STEP
indicator turns off.

• Sets the number of repetitions for the selected Pattern 1• Setting range:
0 to 10000

chin

Pattern link

1 ----• Selects whether to link Pattern 2 to currently selected pattern 1.

PTN/STEP

If Pattern 10 is selected, Pattern 1 can be linked, and selects whether to linkindicator turns off.

Pattern 1.
Randomly selected pattern numbers (Pattern 1 and Pattern 5) cannot belinked.
For repetitions of linked pattern, the whole linked pattern will be repeated as
many times as set in [Number of repetitions].
(e.g.) If patterns 1 and 2 are linked, and if the number of repetitions of pattern
1 is set to 2 times, the whole linked pattern (Patterns 1 and 2) will be
repeated twice.
• Selection item:---- Pattern link Disabledchin Pattern link Enabled

At this stage, settings for Pattern setting mode are complete.
Press the RST key. The unit reverts to RUN mode.
- 48 -

8.2

Setting Items in Event Setting Mode
Setting items in Event Setting Mode differs depending on the selection in [Event output EV

allocation].

If 001 (High limit alarm) to 012 (High/Low limits alarm with standby independent alarm) are selected in[Event output EV

allocation], EV

alarm value will be set.

If 015 (Time signal output) is selected in [Event output EV

allocation], TS

output OFF time and TS

output ON time can be set.
Settings are performed for the pattern number selected at the time of entering Event setting mode.
Setting values are common to all steps in each pattern.
During program control RUN, only the performing pattern can be set.
If ‘Pattern link Enabled’ is selected in [Pattern link]: Even if the performing pattern is changed from 1 to 2
during Event setting mode, Pattern 1 will be remained, and pattern number will not be updated until theunit reverts to RUN mode.
• Alarm output
EV1 alarm output actions are shown below.
EV1 alarm output will be substituted by EV2 or EV3 alarm output.
• High limit alarm• Low limit alarm
EV1 hysteresis

EV1 hysteresis

ON

ON

OFF

OFF
-EV1 value

SV+EV1 value-EV1 value(Fig. 8.2-1)• High/Low limits alarm

SV +EV1 value(Fig. 8.2-2)• High/Low limits independent alarm

EV1 hysteresis

EV1 hysteresis

ON

ON

OFF

OFF
EV1 valueSV

EV1 value

EV1 low limit value(Fig. 8.2-3)

SV(Fig. 8.2-4)- 49 -

EV1 high limit value• High/Low limit range alarm• High/Low limit range independent alarm

EV1 hysteresis

EV1 hysteresis

ON

ON

OFF

OFF
SV EV1 value

EV1 value

EV1 low limit value(Fig. 8.2-5)• Process low alarm

EV1 hysteresis

EV1 hysteresis

ON

ON

OFF

OFF
EV1 valueEV1 value(Fig. 8.2-7)(Fig. 8.2-8)• High limit with standby alarm• Low limit with standby alarm

EV1 hysteresis

EV1 hysteresis

ON

ON

OFF

OFF
SV

+EV1 value-EV1 value

SV+EV1 value

Alarm output is in standby.

Alarm output is in standby.

(Fig. 8.2-9)(Fig. 8.2-10)• High/Low limits with standby alarm• High/Low limits with standby independent alarm

EV1 hysteresis

EV1 hysteresis

ON

ON

OFF

OFF
EV1 value

EV1 high limit value(Fig. 8.2-6)• Process high alarm-EV1 value

SVSV

EV1 value

EV1 low limit value

Alarm output is in standby.

(Fig. 8.2-11)

SV

EV1 high limit value

Alarm output is in standby.

(Fig. 8.2-12)- 50 -

• Time signal output
Time signal output OFF time and Time signal output ON time are set within one pattern total time.
After program control starts, Time signal output activates during Time signal output ON time after
Time signal output OFF time has elapsed.
During Wait action or program control HOLD, progress time of Time signal output stops.
When Step time is changed during program control RUN, Time signal output timing is re-calculatedusing the pattern time after change.
Program pattern setting example
Pattern 1
Step number

1

2

3

4

5

500
0:30

500
1:00

1000
0:40

1000
1:00

0
2:00

1000

500

0
Step SV
Step time
Time signal output

ON
OFF

Program control RUN

ON after 1 hour

OFF after 50 minutes(e.g.) Time signal output setting
Time signal output OFF time: 1 hourTime signal output ON time: 50 minutes(Fig. 8.2-13)

Explanation of Time signal output
In the above program pattern example, Time signal output turns ON one hour after program control
RUN starts (30 minutes after the unit entered Step 2). Time signal output turns OFF 50 minutes after
Time signal output turned ON (20 minutes after the unit entered Step 3).

- 51 -

• Before entering Event setting mode
Select a pattern number with the PTN key before entering Event setting mode.
• How to enter Event setting mode
In RUN mode, press the MODE key for approx. 3 seconds to enter Event setting mode.
Setting items in Event Setting mode are shown below.
Characters,
Factory Default

a1//

1 ///0Setting Item, Function, Setting Range
EV1 alarm value• Sets EV1 alarm value.
EV1 alarm value matches EV1 low limit alarm value in the following cases:
When 004 (High/Low limits independent alarm), 006 (High/Low limit range
independent alarm) or 012 (High/Low limits with standby independent alarm)is selected in [Event output EV1 allocation].
• Setting range:
High limit alarm:-(Input span) to Input span (*1)
Low limit alarm:-(Input span) to Input span (*1)
High/Low limits alarm:
0 to Input span (*1)
High/Low limits independent alarm:
0 to Input span (*1)
High/Low limit range alarm:
0 to Input span (*1)
High/Low limit range independent alarm: 0 to Input span (*1)
Process high alarm:
Input range low limit to Input range high limit (*2)
Process low alarm:
Input range low limit to Input range high limit (*2)
High limit with standby alarm:-(Input span) to Input span (*1)
Low limit with standby alarm:-(Input span) to Input span (*1)
High/Low limits with standby alarm:
0 to Input span (*1)
High/Low limits with standby independent alarm: 0 to Input span (*1)(*1) For DC voltage, current inputs, the input span is the same as the scaling span. (Theplacement of the decimal point follows the selection.)(*2) For DC voltage, current inputs, input range low (or high) limit value is the same as
scaling low (or high) limit value. (The placement of the decimal point follows theselection.)
Available when /001 (High limit alarm) to /012 (High/Low limits with standby

independent alarm) is selected in [Event output EV1 allocation].

a1h/

1 ///0EV1 high limit alarm value• Sets EV1 high limit alarm value.
• Setting range: Same as those of EV1 alarm value.

Available when /004 (High/Low limits independent alarm), /006 (High/Low limit range
independent alarm) or /012 (High/Low limits with standby independent alarm) is selectedin [Event output EV1 allocation].

t1of

1 00:00

TS1 output OFF time
• Sets TS1 output OFF time.
• Setting range:
00:00 to 99:59 (Time unit follows the selection in [Step time unit].)Available when /015 (Time signal output) is selected in [Event output EV1 allocation].

- 52 -

Characters,
Factory Default

t1on

1 00:00

Setting Item, Function, Setting Range
TS1 output ON time
• Sets TS1 output ON time.
• Setting range:
00:00 to 99:59 (Time unit follows the selection in [Step time unit].)Available when /015 (Time signal output) is selected in [Event output EV1 allocation].

a2//

1 ///0EV2 alarm value• Sets EV2 alarm value.
EV2 alarm value matches EV2 low limit alarm value in the following cases:
When 004 (High/Low limits independent alarm), 006 (High/Low limit range
independent alarm) or 012 (High/Low limits with standby independent alarm)is selected in [Event output EV2 allocation].
• Setting range: Same as those of EV1 alarm value.
Available when /001 (High limit alarm) to /012 (High/Low limits with standby

independent alarm) is selected in [Event output EV2 allocation].

a2h/

1 ///0EV2 high limit alarm value• Sets EV2 high limit alarm value.
• Setting range: Same as those of EV1 alarm value.

Available when /004 (High/Low limits independent alarm), /006 (High/Low limit range
independent alarm) or /012 (High/Low limits with standby independent alarm) is selectedin [Event output EV2 allocation].

t2of

1 00:00

TS2 output OFF time
• Sets TS2 output OFF time.
• Setting range:
00:00 to 99:59 (Time unit follows the selection in [Step time unit].)Available when /015 (Time signal output) is selected in [Event output EV2 allocation].

t2on

1 00:00

TS2 output ON time
• Sets TS2 output ON time.
• Setting range:
00:00 to 99:59 (Time unit follows the selection in [Step time unit].)Available when /015 (Time signal output) is selected in [Event output EV2 allocation].

a3//

1 ///0EV3 alarm value• Sets EV3 alarm value.
EV3 alarm value matches EV3 low limit alarm value in the following cases:
When 004 (High/Low limits independent alarm), 006 (High/Low limit range
independent alarm) or 012 (High/Low limits with standby independent alarm)is selected in [Event output EV3 allocation].
• Setting range: Same as those of EV1 alarm value.
Available when /001 (High limit alarm) to /012 (High/Low limits with standby

independent alarm) is selected in [Event output EV3 allocation].

a3h/

1 ///0EV3 high limit alarm value• Sets EV3 high limit alarm value.
• Setting range: Same as those of EV1 alarm value.

Available when /004 (High/Low limits independent alarm), /006 (High/Low limit range
independent alarm) or /012 (High/Low limits with standby independent alarm) is selectedin [Event output EV3 allocation].

- 53 -

Characters,
Factory Default

t3of

1 00:00

Setting Item, Function, Setting Range
TS3 output OFF time
• Sets TS3 output OFF time.
• Setting range:
00:00 to 99:59 (Time unit follows the selection in [Step time unit].)Available when /015 (Time signal output) is selected in [Event output EV3 allocation].

t3on

1 00:00

TS3 output ON time
• Sets TS3 output ON time.
• Setting range:
00:00 to 99:59 (Time unit follows the selection in [Step time unit].)Available when /015 (Time signal output) is selected in [Event output EV3 allocation].

At this stage, settings for Event setting mode are complete.
Press the RST key. The unit reverts to RUN mode.

- 54 -

8.3

Setting Items in Control Parameter Setting ModeIn Control parameter setting mode, the following setting items can be set:
AT Perform/Cancel, OUT1 proportional band, Integral time, derivative time, ARW, OUT2 proportionalband (when EV2, DS, DA or EV3D

option is ordered), Direct/Reverse action, Loop break alarm, etc.

Setting data is common to all patterns.
• How to enter Control parameter setting mode
In RUN mode, press theand MODE keys (in that order) together. The unit enters Control

parameter setting mode.
Setting items in Control parameter setting mode are shown below.
Characters,
Factory Default

Setting Item, Function, Setting Rangeat//

AT Perform/Cancel• Selects AT (auto-tuning) Perform/Cancel.
AT will work only during program control RUN.
After AT starts, and if AT has not been completed within 4 hours, or if input
errors have occurred, er20 will be indicated on the PV Display, and AT will
be forced to stop.
• Selection item:---- AT Cancel
AT// AT Performpblk

PID block number• Selects a PID block number from 1 to 10 for the following settings:
OUT1 proportional band, Integral time, Derivative time, ARW,OUT2 proportional band [EV2(DR), DS, DA, EV3D options]
Refer to recommended usage of block numbers as follows:
Block 1: For Fixed value control
Block 2: For low temperature program control
Block 3: For medium temperature program control
Block 4: For high temperature program control• Selection item:
1 to 10/ ----/ ///1- 55 -

Characters,
Factory Defaultp///1 //10Setting Item, Function, Setting Range
OUT1 proportional band
• Sets OUT1 proportional band for the PID block number selected in [PID blocknumber].
The PTN/STEP Display indicates the PID block number selected in [PID blocknumber].
OUT1 becomes ON/OFF control when set to 0 or 0.0.
OUT1 proportional band
ON

OFF
SV

(Fig. 8.3-1)i///

1 /200d///

1 //50arw/

1 //50• Setting range:
Thermocouple, RTD input without decimal point: 0 to input span ( )Thermocouple, RTD input with decimal point: 0.0 to input span ( )DC voltage, current inputs: 0.0 to 1000.0%
Integral time
• Sets the integral time of the PID block number selected in [PID blocknumber].
The PTN/STEP Display indicates the PID block number selected in [PID blocknumber].
• Setting range: 0 to 3600 seconds
Derivative time
• Sets the derivative time of the PID block number selected in [PID blocknumber].
The PTN/STEP Display indicates the PID block number selected in [PID blocknumber].
• Setting range: 0 to 1800 seconds
ARW• Sets the ARW (anti-reset windup) of the PID block number selected in [PID
block number].
The PTN/STEP Display indicates the PID block number selected in [PID blocknumber].
• Setting range: 0 to 100%

- 56 -

Characters,
Factory Defaultc//// ///3

Setting Item, Function, Setting Range
OUT1 proportional cycle• Sets OUT1 proportional cycle.
For relay contact output, if the proportional cycle time is decreased, thefrequency of the relay action increases, and the life of the relay contact isshortened.
Factory default value is different depending on the output type.
Relay contact output: 30 seconds
Non-contact voltage output: 3 seconds
Direct current output: Not available• Setting range:
0.5, 1 to 120 seconds
Available when OUT1 is relay contact output or non-contact voltage output type.

hys// //1.0

OUT1 ON/OFF hysteresis• Sets ON/OFF hysteresis for OUT1.
Hysteresis
ON

OFF
OUT1
hysteresis

SV(Fig. 8.3-2)

olh// /100oll// ///0• Setting range:
0.1 to 1000.0 ( )DC voltage, current inputs: 1 to 10000 (The placement of the decimal point
follows the selection.)
OUT1 high limit• Sets OUT1 high limit value.
• Setting range:
OUT1 low limit to 100%
Direct current output type: OUT1 low limit to 105%
OUT1 low limit• Sets OUT1 low limit value.
• Setting range:
0% to OUT1 high limit
Direct current output type: -5% to OUT1 high limit- 57 -

Characters,
Factory Default

orat/ ///0Setting Item, Function, Setting Range
OUT1 rate-of-change• Sets changing value of OUT1 MV for 1 second.
Setting the value to 0 disables this function.
• About OUT1 rate-of-change:
For Heating control, if PV is lower than SV, OUT1 MV is generally turned from
OFF to ON as shown in (Fig. 8.3-3).
If OUT1 rate-of-change is set, OUT1 MV can be changed by the rate-ofchange as shown in (Fig. 8.3-4).
This control is suitable for high temperature heaters (which are made frommolybdenum, tungsten or platinum, etc., and used at approx. 1500 to 1800 )which are easily burnt out from turning on electricity rapidly.
• Setting range: 0 to 100 %/second
Not available if OUT1 is in ON/OFF control.
ON (100%)

OFF (0%)(Fig. 8.3-3)
100 %/sec

20 %/sec

10 %/sec

ON (100%)

OFF (0%)
1 sec

5 sec

(Fig. 8.3-4)• Setting range: 0 to 100 %/second- 58 -

10 secCharacters,
Factory Default

cact/ air/

Setting Item, Function, Setting Range
OUT2 cooling method• Selects OUT2 cooling method from air, oil or water cooling.
OUT2 proportional band
Air cooling
Oil cooling
Water coolingSV(Fig. 8.3-5)• Selection item:
air/ Air cooling (Linear characteristics)
oil/ Oil cooling (1.5th power of the linear characteristics)
wat/ Water cooling (2nd power of the linear characteristics)
Available when EV2 option (if “/020: Heating/Cooling control output” is selected in [Event
output EV2 allocation]) is ordered, or when DS, DA or EV3D

p_b/

1 //10

option is ordered.

OUT2 proportional band
• Sets the OUT2 proportional band of the PID block number selected in [PID
block number].
The PTN/STEP Display indicates the PID block number selected in [PID blocknumber].
When set to 0 or 0.0, OUT2 becomes ON/OFF control, and the action selectedin [OUT2 cooling method] will be disabled.
• Setting range:
Thermocouple, RTD input without decimal point: 0 to Input span ( )Thermocouple, RTD input with decimal point: 0.0 to Input span ( )DC voltage, current inputs: 0.0 to 1000.0%
Available when EV2 option (if “/020: Heating/Cooling control output” is selected in[Event output EV2 allocation]) is ordered, or when DS, DA or EV3D

c_b// ///3

option is ordered.

OUT2 proportional cycle• Sets OUT2 proportional cycle.
For relay contact output, if the proportional cycle time is decreased, thefrequency of the relay action increases, and the life of the relay contact isshortened.
Factory default value is different depending on the output type as follows:
Relay contact output [EV2, EV3(DR)]: 30 seconds
Non-contact voltage output (DS, EV3DS): 3 seconds
Direct current output (DA, EV3DA): Not available• Setting range: 0.5, 1 to 120 seconds
Available when EV2 option (When “/020: Heating/Cooling control output” is selected in[Event output EV2 allocation]) is ordered, or when DS, EV3(DR), EV3DS option isordered.

- 59 -

Characters,
Factory Default

hysb/ //1.0

Setting Item, Function, Setting Range
OUT2 ON/OFF hysteresis• Sets OUT2 ON/OFF hysteresis.
Hysteresis
ON

OFF
SV

OUT2
hysteresis(Fig. 8.3-6)• Setting range: 0.1 to 1000.0 ( )DC voltage, current inputs: 1 to 10000 (The placement of the decimal point
follows the selection.)
Available when EV2 option (if “/020: Heating/Cooling control output” is selected in[Event output EV2 allocation]) is ordered, or when DS, DA or EV3D

olhb

/ /100

option is ordered.

OUT2 high limit• Sets OUT2 high limit value.
• Setting range: OUT2 low limit value to 100%
Direct current output type (DA, EV3DA options): OUT2 low limit value to 105%
Available when EV2 option (if “/020: Heating/Cooling control output” is selected in[Event output EV2 allocation]) is ordered, or when DS, DA or EV3D

ollb

/ ///0

option is ordered.

OUT2 low limit• Sets OUT2 low limit value.
• Setting range: 0% to OUT2 high limit value
Direct current output type (DA, EV3DA options): -5% to OUT2 high limit value
Available when EV2 option (if “/020: Heating/Cooling control output” is selected in[Event output EV2 allocation]) is ordered, or when DS, DA or EV3D

- 60 -

option is ordered.

Characters,
Factory Defaultdb/// //0.0

Setting Item, Function, Setting Range
Overlap/Dead band
• Sets the overlap band or dead band.
+ Set value: Dead band
– Set value: Overlap band
Overlap band (When OUT1 and OUT2 are in PID control)
OUT1 proportional band
OUT2 proportional band
Overlap band
ON

ON
OUT1

OUT2

OFF

OFF
SV

(Fig. 8.3-7)
Dead band (When OUT1 and OUT2 are in PID control)
OUT1 P-band

OUT2 P-band

Dead band
ON

ON
OUT1

OUT2

OFF

OFF
SV

(Fig. 8.3-8)
Overlap band (When OUT1 is in PID control, OUT2 is in ON/OFF control)
OUT1 proportional band
Hysteresis
Overlap band
ON

ON
OUT1

OUT2

OFF

OFF
SV

(Fig. 8.3-9)- 61 -

Characters,
Factory Default

Setting Item, Function, Setting Range
Dead band (When OUT1 is in PID control, OUT2 is in ON/OFF control)
OUT1 proportional band
Hysteresis
Dead band
ON

ON
OUT1

OUT2

OFF

OFF
SV

(Fig. 8.3-10)• Setting range:-200.0 to 200.0 ( )DC voltage, current inputs:-2000 to 2000 (The placement of the decimal point follows the selection.)
Available when EV2 option (if “/020: Heating/Cooling control output” is selected in[Event output EV2 allocation]) is ordered, or when DS, DA or EV3D

cont

/ heath1/// //0.0h1// and CT1
current value arealternately
indicated.

option is ordered.

Direct/Reverse action• Selects either Direct (Cooling) or Reverse (Heating) control action.
• Selection range:heat Reverse (Heating) action
cool Direct (Cooling) action
Heater burnout alarm 1 value• Sets the detecting current value for Heater burnout alarm 1.
When setting to 0.0, Heater burnout alarm 1 is disabled.
Characters h1// and CT1 current value are indicated alternately on the PV
Display.
When OUT1 is ON, the CT1 current value is updated.
When OUT1 is OFF, the unit memorizes the previous value when OUT1 wasON.
Upon returning to set limits, the alarm will stop.
• Setting range:
20 A: 0.0 to 20.0 A
100 A: 0.0 to 100.0 A
Available when C5W, EIW, W option is ordered, and when OUT1 is relay contact output or
non-contact voltage output type.

h2/// //0.0h2// and CT2
current value arealternately
indicated.

Heater burnout alarm 2 value• Sets the detecting current value for Heater burnout alarm 2.
Available only when using 3-phase.
When setting to 0.0, Heater burnout alarm 2 is disabled.
Characters h2// and CT2 current value are indicated alternately on the PV
Display.
When OUT1 is ON, the CT2 current value is updated.

- 62 -

Characters,
Factory Default

Setting Item, Function, Setting Range
When OUT1 is OFF, the unit memorizes the previous value when OUT1 wasON.
Upon returning to set limits, the alarm will stop.
• Setting range:
20 A: 0.0 to 20.0 A
100 A: 0.0 to 100.0 A
Available when C5W, EIW, W option is ordered, and when OUT1 is relay contact output or
non-contact voltage output type.

lp_t/ ///0Loop break alarm time
• Sets the time to assess the Loop break alarm.
Setting to 0 (zero) disables the alarm.
• About the Loop break alarm:
When the control action is Reverse (Heating) control:
If the PV does not reach the Loop break alarm band setting within the time
allotted to assess the Loop break alarm (after the MV has reached 100% or the
OUT1 high limit value), the alarm output will be turned ON.
Likewise, if the PV does not drop to the Loop break alarm band setting within
the time allotted to assess the Loop break alarm (after the MV has reached 0%
or the OUT1 low limit value), the alarm output will be turned ON.
When the control action is Direct (Cooling) control:
If the PV does not drop to the Loop break alarm band setting within the time
allotted to assess the Loop break alarm (after the MV has reached 100% or the
OUT1 high limit value), the alarm output will be turned ON.
Likewise, if the PV does not reach the Loop break alarm band setting within thetime allotted to assess the Loop break alarm (after the MV has reached 0% or
the OUT1 low limit value), the alarm output will be turned ON.
• When EV2 option (if “/020: Heating/Cooling control output” is selectedin [Event output EV2 allocation]) is ordered, or when DS, DA or EV3D
option is ordered.
When the control action is Reverse (Heating) control:
After OUT1 MV has reached 100% or the OUT1 high limit value, or after OUT2
MV has reached 0% or -(OUT2 low limit value), if the PV does not reach the
Loop break alarm band setting within the time allotted to assess the Loop breakalarm, the alarm output will be turned ON.
Likewise, after OUT1 MV has reached 0% or the OUT1 low limit value, or after
OUT2 MV has reached -100% or -(OUT2 high limit value), if the PV does notdrop to the Loop break alarm band setting within the time allotted to assess the
Loop break alarm, the alarm output will be turned ON.
When the control action is Direct (Cooling) control:
After OUT1 MV has reached 100% or the OUT1 high limit value, or after OUT2
MV has reached 0% or -(OUT2 low limit value), if the PV does not drop to the
Loop break alarm band setting within the time allotted to assess the Loop breakalarm, the alarm output will be turned ON.

- 63 -

Characters,
Factory Default

Setting Item, Function, Setting Range
Likewise, after OUT1 MV has reached 0% or the OUT1 low limit value, or after
OUT2 MV has reached -100% or -(OUT2 high limit value), if the PV does notreach the Loop break alarm band setting within the time allotted to assess the
Loop break alarm, the alarm output will be turned ON.

lp_h/ ///0• Setting range:
0 to 200 minutes
Loop break alarm band
• Sets the action band to assess the Loop break alarm.
• Setting range:
Thermocouple, RTD input without decimal point: 0 to 150 ( )Thermocouple, RTD input with decimal point: 0.0 to 150.0 ( )DC voltage, current inputs: 0 to 1500 (The placement of the decimal point
follows the selection.)

At this stage, settings for Control parameter setting mode are complete.
Press the RST key. The unit reverts to RUN mode.

- 64 -

8.4

Setting Items in Wait Parameter Setting Mode
In Wait parameter setting mode, the following setting items can be set:
Wait value, Wait function Enabled/Disabled for each step
Settings are performed for the pattern number selected at the time of entering Wait parameter settingmode.
During program control RUN, only the performing pattern can be set.
If ‘Pattern link Enabled’ is selected in [Pattern link]: Even if the performing pattern is changed from 1
to 2 during Wait parameter setting mode, Pattern 1 will remain, and the pattern number will not
be updated until the unit reverts to RUN mode.

• Wait function
During program control RUN, the program does not proceed to the next step until the deviation
between PV and SV enters SV Wait value at the end of step.
The PV Display and PTN/STEP Display flash while the Wait function is activated.
• Explanation of Wait Function• Program pattern rising step:SV

Wait value 10
T

T

500
490

Time
When PV becomes 490

the Wait function is cancelled, proceeding to the next step.

As PV is not in the range of [SV－Wait value], the Wait function is activated, and the unit does notproceed to the next step. The PV Display and PTN/STEP Display flash during the Wait function.

Program pattern
PV
Program pattern delayed by T time due to the Wait function(Fig. 8.4-1)- 65 -

• Program pattern falling step:SV

Wait value 10
T

T

510
500

Time
When PV becomes 510 , Wait function is cancelled, proceeding to the next step.
As PV is not in the range of [SV+Wait value], the Wait function is activated, and the unit does notproceed to the next step. The PV Display and PTN/STEP Display flash during the Wait function.

Program pattern
PV
Program pattern delayed by T time due to the Wait function(Fig. 8.4-2)• How to cancel the Wait function
Press the RUN key for approx. 1 second to cancel the Wait function.
• Before entering Wait parameter setting mode
Select a pattern number with the PTN key before entering Wait parameter setting mode.
• How to enter Wait parameter setting mode
In RUN mode, press theandkeys (in that order) together for approx. 3 seconds.

The unit enters Wait parameter setting mode.
Setting items in Wait parameter setting mode are shown below.
Characters,
Factory Default

wait

1 ///0Setting Item, Function, Setting Range
Wait value• Sets the Wait value.
Wait value is common to all steps for each pattern.
When set to 0 or 0.0, the Wait function is disabled.
• Setting range: 0 to 20% of input span (*)(*) DC voltage, current inputs: 0 to 20% of scaling span (The placement of the decimal point
follows the selection.)- 66 -

Characters,
Factory Defaultwact

1 ---PTN/STEP
indicator 1lights up.

Setting Item, Function, Setting Range
Step 1 wait function Enabled/Disabled• Selects the wait function Enabled or Disabled at Step 1, based on the wait
value set in [Wait value].
• Selection item:---- Disableduse/ Enabled
Not available if wait value is set to 0 or 0.0.

wact

1 ---PTN/STEP
indicator 2lights up.

Step 2 wait function Enabled/Disabled• Selects the wait function Enabled or Disabled at Step 2, based on the wait
value set in [Wait value].
• Selection item:---- Disableduse/ Enabled
Not available if wait value is set to 0 or 0.0.

wact

1 ---PTN/STEP
indicator 3
lights up.

Step 3 wait function Enabled/Disabled• Selects the wait function Enabled or Disabled at Step 3, based on the wait
value set in [Wait value].
• Selection item:---- Disableduse/ Enabled
Not available if wait value is set to 0 or 0.0.

wact

1 ---PTN/STEP
indicator 4lights up.

Step 4 wait function Enabled/Disabled• Selects the wait function Enabled or Disabled at Step 4, based on the wait
value set in [Wait value].
• Selection item:---- Disableduse/ Enabled
Not available if wait value is set to 0 or 0.0.

wact

1 ---PTN/STEP
indicator 5
lights up.

Step 5 wait function Enabled/Disabled• Selects the wait function Enabled or Disabled at Step 5, based on the wait
value set in [Wait value].
• Selection item:---- Disableduse/ Enabled
Not available if wait value is set to 0 or 0.0.

wact

1 ---PTN/STEP
indicator 6
lights up.

Step 6 wait function Enabled/Disabled• Selects the wait function Enabled or Disabled at Step 6, based on the wait
value set in [Wait value].
• Selection item:---- Disableduse/ Enabled
Not available if wait value is set to 0 or 0.0.

- 67 -

Characters,
Factory Defaultwact

1 ---PTN/STEP
indicator 7
lights up.

Setting Item, Function, Setting Range
Step 7 wait function Enabled/Disabled• Selects the wait function Enabled or Disabled at Step 7, based on the wait
value set in [Wait value].
• Selection item:---- Disableduse/ Enabled
Not available if wait value is set to 0 or 0.0.

wact

1 ---PTN/STEP
indicator 8lights up.

Step 8 wait function Enabled/Disabled• Selects the wait function Enabled or Disabled at Step 8, based on the wait
value set in [Wait value].
• Selection item:---- Disableduse/ Enabled
Not available if wait value is set to 0 or 0.0.

wact

1 ---PTN/STEP
indicator 9lights up.

Step 9 wait function Enabled/Disabled• Selects the wait function Enabled or Disabled at Step 9, based on the wait
value set in [Wait value].
• Selection item:---- Disableduse/ Enabled
Not available if wait value is set to 0 or 0.0.

wact

1 ---PTN/STEP
indicator 10
lights up.

Step 10 wait function Enabled/Disabled• Selects the wait function Enabled or Disabled at Step 10, based on the wait
value set in [Wait value].
• Selection item:---- Disableduse/ Enabled
Not available if wait value is set to 0 or 0.0.

At this stage, settings for Wait parameter setting mode are complete.
Press the RST key. The unit reverts to RUN mode.

- 68 -

8.5

Setting Items in Engineering Setting Mode 1
In Engeering setting mode 1, the following setting items can be set:Set value lock, Sensor correction, PV filter time constant, Communication parameters (When C5W
or C5 option is ordered)
Setting data is common to all patterns.
• How to enter Engineering setting mode 1
In RUN mode, press theand MODE keys (in that order) together for approx. 3 seconds to enter
Engeering setting mode 1.
Setting items in Engeering setting mode 1 are shown below.
Characters,
Factory Default

lock/ ----

lose/ sv//

Setting Item, Function, Setting Range
Set value lock
• Locks the set values to prevent setting errors.
The setting item to be locked depends on the selection.
• Selection item:
Change via Software
Change via KeypadCommunication---UnlockAll set values can be
All set values can bechanged.
changed.
loc1
Lock 1
Only ‘Set value lock’ canbe changed. Other setting
items cannot be changed.
loc2
Lock 2
Setting items selected in[Changeable in Set valuelock] can be changed.
‘Set value lock’ can bechanged. Other setting
items cannot be changed.
loc3
Lock 3All set values can be
Setting items – except
Input type – can bechanged.
changed temporarily via
loc4
Lock 4
Only ‘Set value lock’ cansoftware communication.
be changed. Other setting
However, if power is turned
items cannot be changed.
ON again, the set values
loc5
Lock 5
Setting items selected inrevert to the values before[Changeable in Set value
Lock 3, 4 or 5 waslock] can be changed.
selected.
‘Set value lock’ can bechanged. Other setting
items cannot be changed.
Changeable in Set value lock
• When loc2 (Lock 2) or loc5 (Lock 5) is selected in [Set value lock], thefollowing items can be changed.
• Selection item:
sv// Step SV and Step time can be changed.
svev Step SV, Step time and EV alarm value can be changed.

- 69 -

Characters,
Factory Default

sok// 1.000

Setting Item, Function, Setting Range
Sensor correction coefficient• Sets sensor correction coefficient.
Sets slope of input value from a sensor.

Y

750
700

340
300

Y'

Corrected from750 to 700 .

X'
X

Corrected from
300 to 340 .

300

750

Slope before correction
Slope after correction

Y' − X '= Sensor correction coefficient
Y−X(Fig. 8.5-1)

so/// //0.0

PV after sensor correction= Current PV x (Sensor correction coefficient) +(Sensor correction value)
Refer to Section ‘9.5 Input Value Correction’ (pp.107, 108).
• Setting range:-10.000 to 10.000
Sensor correction• This corrects the input value from the sensor.
When a sensor cannot be set at the exact location where control is desired, thesensor-measured temperature may deviate from the temperature in the controlled
location. When using multiple controllers, sometimes the measured temperatures
do not concur due to differences in sensor accuracy or dispersion of load capacities.
In such a case, the control can be set at the desired temperature by adjusting the
input value of sensors. However, it’s only effective within the input rating range
regardless of the sensor correction value.
PV after sensor correction= Current PV x (Sensor correction coefficient) +(Sensor correction value)
Refer to Section ‘9.5 Input Value Correction’ (pp.107, 108).
• Setting range: -1000.0 to 1000.0 ( )DC voltage, current inputs: -10000 to 10000 (The placement of the decimal
point follows the selection.)- 70 -

Characters,
Factory Default

filt/ //0.0

Setting Item, Function, Setting Range
PV filter time constant• Sets PV filter time constant.
If the value is set too high, it affects control results due to the delay of
response.
About PV filter time constant:
This is a filter function on the software, which has the same effect as a CR
filter. By calculating first-order lag of PV, this suppresses input fluctuation
caused by noise.
When the input value changes as shown in (Fig. 8.5-2), this function makes
the input change slow as shown in (Fig. 8.5-3).
T (PV filter time constant) is the time when input change reaches 63% of thedesired PV.

(Fig. 8.5-2)
100%
63%

T

(Fig. 8.5-3)

cmsl/ noml• Setting range: 0.0 to 10.0 seconds
Communication protocol• Selects communication protocol.
• Selection item:
noml Shinko protocol
svt/ SV digital transmission (Shinko protocol)
svtr SV digital reception (Shinko protocol)
moda Modbus ASCII mode
modr Modbus RTU mode
Available when C5W or C5 option is ordered.

cmno/ ///0Instrument number• Sets the instrument number.
The instrument numbers should be set one by one when multiple instruments
are connected in Serial communication, otherwise communication is
impossible.
• Setting range: 0 to 95
Available when C5W or C5 option is ordered.

- 71 -

Characters,
Factory Default

cmsp/ //96

Setting Item, Function, Setting Range
Communication speed• Selects a communication speed equal to that of the host computer.
• Selection item://96 9600 bps/192 19200 bps/384 38400 bps
Available when C5W or C5 option is ordered.

cmft/ 7evnData bit/Parity• Selects data bit and parity equal to those of the host computer.
• Selection item:
8non 8 bits/No parity
7non 7 bits/No parity
8evn 8 bits/Even
7evn 7 bits/Even
8odd 8 bits/Odd
7odd 7 bits/Odd
Available when C5W or C5 option is ordered.

cmst/ ///1

Stop bit• Selects the stop bit equal to that of the host computer.
• Selection item:///1 1 bit///2 2 bits
Available when C5W or C5 option is ordered.

cmdy

Response delay time
• Response from the controller can be delayed after receiving command fromthe host computer.
If Response delay time is changed via software communication, the changed
delay time will be reflected from that response data.
• Setting range: 0 to 1000 ms

sv_b

SVTC bias• SV adds SVTC bias value to the value received by the SVTC command.
• Setting range: 20% of input span
DC voltage, current inputs: 20% of scaling span (The placement of thedecimal point follows the selection.)/ //10Available when C5W or C5 option is ordered.

/ ///0Available when C5W, C5 option is ordered, and when svtr [SV digital reception (Shinko
protocol)] is selected in [Communication protocol].

At this stage, settings for Engineering setting mode 1 are complete.
Press the RST key. The unit reverts to RUN mode.

- 72 -

8.6

Setting Items in Engineering Setting Mode 2
In Engeering setting mode 2, the following setting items can be set:
Input type, Scaling high limit, Scaling low limit, Event output EV

allocation, Step time unit,

Power restore action, etc.
Setting data is common to all patterns.
• How to enter Engineering setting mode 2
In RUN mode, press the,and MODE keys (in that order) together for approx. 3 seconds

to enter Engeering setting mode 2.
Setting items in Engeering setting mode 2 are shown below.
Characters,
Factory Default

sens/ k//C

Setting Item, Function, Setting Range
Input type
• Selects an input type from thermocouple (10 types), RTD (2 types), direct
current (2 types) and DC voltage (4 type), and the unit / .
• When changing the input from DC voltage to other inputs, remove thesensor connected to this controller first, then change the input. If the
input is changed with the sensor connected, the input circuit may break.
• When changing an input type, refer to Section “9.6 Items to be Initialized by
Changing Settings” (p.109).
• Selection item:
k//C K-200 to 1370
k//.C

K

-200.0 to 400.0

j//.C

J

-200 to 1000

r//C

R

0 to 1760

s//C

S

0 to 1760

b//C

B

0 to 1820

e//C

E-200 to 800

t//.C

T

-200.0 to 400.0

n//C

N

-200 to 1300

pl2C

PL-

0 to 1390

c//C

C(W/Re5-26)

0 to 2315

pt/.C

Pt100

-200.0 to 850.0

jpt.C

JPt100-200.0 to 500.0

pt/C

Pt100

-200 to 850

jptC

JPt100-200 to 500

k//f
k//.f
j//f
r//f
s//f
b//f
e//f

K
K
J
R
S
B
E

-328 to 2498
-328.0 to 752.0-328 to 1832
32 to 3200
32 to 3200
32 to 3308
-328 to 1472
- 73 -

Characters,
Factory Default

stlh/ 1370stll/ -200dp/// ///0Setting Item, Function, Setting Ranget//.f T
-328.0 to 752.0
n//f N-328 to 2372
pl2f PL32 to 2534
c//f C(W/Re5-26) 32 to 4199
pt/.f Pt100-328.0 to 1562.0
jpt.f JPt100-328.0 to 932.0
pt/f Pt100-328 to 1562
jptf JPt100-328 to 932
420a 4 - 20 mA-2000 to 10000
020a 0 - 20 mA-2000 to 10000
0/1v 0 - 1 V-2000 to 10000
0/5v 0 - 5 V-2000 to 10000
1/5v 1 - 5 V-2000 to 10000
010v 0 - 10 V
-2000 to 10000
Scaling high limit• Sets scaling high limit value.
• Setting range: Scaling low limit to Input range high limit
DC voltage, current inputs: -2000 to 10000 (The placement of the decimal
point follows the selection.)
Scaling low limit• Sets scaling low limit value.
• Setting range: Input range low limit to Scaling high limit
DC voltage, current inputs: -2000 to 10000 (The placement of the decimal
point follows the selection.)
Decimal point place• Selects decimal point place.
• Selection item:///0 No decimal point//0.0 1 digit after decimal point/0.00 2 digits after decimal point
0.000 3 digits after decimal point
Available when DC voltage or current input is selected in [Input type].

evo1/ /000

Event output EV1 allocation• Selects Event output EV1 from the table below.
• When changing Event output EV1, refer to Section “9.6 Items to be Initializedby Changing Settings” (p.109).
• Selection item:/000 No event/001 Alarm output, High limit alarm/002 Alarm output, Low limit alarm/003 Alarm output, High/Low limits alarm/004 Alarm output, High/Low limits independent alarm/005 Alarm output, High/Low limit range alarm- 74 -

Characters,
Factory Default

Setting Item, Function, Setting Range
/006
/007
/008
/009
/010
/011
/012
/013

/014

Alarm output, High/Low limit range independent alarm
Alarm output, Process high alarm
Alarm output, Process low alarm
Alarm output, High limit with standby alarm
Alarm output, Low limit with standby alarm
Alarm output, High/Low limits with standby alarm
Alarm output, High/Low limits with standby independent alarm
Heater burnout alarm output (When C5W, EIW or W option isordered):Detects load current value with CT (current transformer), and if it islower than heater burnout alarm value, Heater burnout alarm
output is turned ON.
Loop break alarm output:
Sets Loop break alarm time and band.
• About the Loop break alarm:
When the control action is Reverse (Heating) control:
If the PV does not reach the Loop break alarm band setting within
the time allotted to assess the Loop break alarm (after the MV hasreached 100% or the OUT1 high limit value), the alarm output will
be turned ON.
Likewise, if the PV does not drop to the Loop break alarm bandsetting within the time allotted to assess the Loop break alarm(after the MV has reached 0% or the OUT1 low limit value), thealarm output will be turned ON.
When the control action is Direct (Cooling) control:
If the PV does not drop to the Loop break alarm band setting within
the time allotted to assess the Loop break alarm (after the MV hasreached 100% or the OUT1 high limit value), the alarm output will
be turned ON.
Likewise, if the PV does not reach the Loop break alarm bandsetting within the time allotted to assess the Loop break alarm(after the MV has reached 0% or the OUT1 low limit value), thealarm output will be turned ON.
• When EV2 option (If “/020: Heating/Cooling control output”
is selected in [Event output EV2 allocation]) is ordered, or DS,
DA or EV3D option is ordered.
When the control action is Reverse (Heating) control:
After OUT1 MV has reached 100% or the OUT1 high limit value, orafter OUT2 MV has reached 0% or -(OUT2 low limit value), if the
PV does not reach the Loop break alarm band setting within thetime allotted to assess the Loop break alarm, the alarm output will
be turned ON.
Likewise, after OUT1 MV has reached 0% or the OUT1 low limit
value, or after OUT2 MV has reached -100% or -(OUT2 high limit
value), if the PV does not drop to the Loop break alarm band setting
within the time allotted to assess the Loop break alarm, the alarm
output will be turned ON.
- 75 -

Characters,
Factory Default

Setting Item, Function, Setting Range

/015

/016
/017

/018

/019

When the control action is Direct (Cooling) control:
After OUT1 MV has reached 100% or the OUT1 high limit value, orafter OUT2 MV has reached 0% or -(OUT2 low limit value), if the
PV does not drop to the Loop break alarm band setting within thetime allotted to assess the Loop break alarm, the alarm output will
be turned ON.
Likewise, after OUT1 MV has reached 0% or the OUT1 low limit
value, or after OUT2 MV has reached -100% or -(OUT2 high limit
value), if the PV does not reach the Loop break alarm band setting
within the time allotted to assess the Loop break alarm, the alarm
output will be turned ON.
Time signal output:
Turns ON during program control RUN, by setting Time signal
output OFF time and ON time within total time in one pattern.
Output during AT:
Turns ON during AT.
Pattern end output:
Turns ON when Program control ends, and remains ON during
the time set in [Pattern end output time].
Output by communication command:
Communication command 8004H B0 EV1 output 0: OFF, 1: ON
B1 EV2 output 0: OFF, 1: ON
B2 EV3 output 0: OFF, 1: ON
RUN output:
Turns ON during program control RUN.

When /001 (High limit alarm) to /012 (High/Low limit with standby independent alarm)
or /015 (Time signal output) is selected, one output can be set to one event output.
When /013 (Heater burnout alarm output), /014 (Loop break alarm), and /016 (Output
during AT) to /019 (RUN output) are selected, each output is common to multiple event
outputs.

a1za/ no//

EV1 alarm value 0 Enabled/Disabled• When EV1 alarm value is 0 (zero), alarm action can be Enabled or Disabled.
• Selection item:
no// Disabled
yes/ Enabled
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits withstandby independent alarm) is selected in [Event output EV1 allocation] - excluding /007
(Process high alarm) and /008 (Process low alarm).

a1hy/ //1.0

EV1 alarm hysteresis• Sets EV1 alarm hysteresis.
• Setting range: 0.1 to 1000.0 ( ),DC voltage, current inputs: 1 to 10000 (The placement of the decimal point
follows the selection.)
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits withstandby independent alarm) is selected in [Event output EV1 allocation].

a1dy/ ///0EV1 alarm delay time
• Sets EV1 alarm action delay time.
When setting time has elapsed after PV enters the alarm output range, thealarm is activated.
• Setting range: 0 to 10000 seconds
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits withstandby independent alarm) is selected in [Event output EV1 allocation].

- 76 -

Characters,
Factory Default

a1lm/ nomlSetting Item, Function, Setting Range
EV1 alarm Energized/De-energized• Selects Energized/De-energized status for EV1 alarm.
When Energized is selected, and Event output EV1 is conductive (ON) while
the EV1 indicator is lit. Event output EV1 is not conductive (OFF) while the EV1
indicator is not lit.
When De-energized is selected, Event output EV1 is not conductive (OFF)while the EV1 indicator is lit. Event output EV1 is conductive (ON) while theEV1 indicator is not lit.
High limit alarm (Energized)

High limit alarm (De-energized)
EV1 hysteresis

EV1 hysteresis
ON

ON

OFF

OFF
SV

+EV1 value(Fig. 8.6-1)

SV+EV1 value(Fig. 8.6-2)• Selection item:
noml Energized
revs De-energized
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits withstandby independent alarm) is selected in [Event output EV1 allocation].

evo2/ /000

Event output EV2 allocation• Selects Event output EV2 from the table below.
• When changing Event output EV2, refer to Section “9.6 Items to be Initializedby Changing Settings” (p.109).
• Selection item:/000 No event/001

Alarm output, High limit alarm/002

Alarm output, Low limit alarm/003

Alarm output, High/Low limits alarm/004

Alarm output, High/Low limits independent alarm/005

Alarm output, High/Low limit range alarm/006

Alarm output, High/Low limit range independent alarm/007

Alarm output, Process high alarm/008

Alarm output, Process low alarm/009

Alarm output, High limit with standby alarm/010

Alarm output, Low limit with standby alarm/011

Alarm output, High/Low limits with standby alarm/012

Alarm output, High/Low limits with standby independent alarm- 77 -

Characters,
Factory Default

Setting Item, Function, Setting Range
/013

/014

Heater burnout alarm output (When C5W, EIW or W option is ordered):
Detects load current value with CT (current transformer), and if it islower than heater burnout alarm value, Heater burnout alarm
output is turned ON.
Loop break alarm output:
Sets Loop break alarm time and band.
• About the Loop break alarm:
When the control action is Reverse (Heating) control:
If the PV does not reach the Loop break alarm band setting within
the time allotted to assess the Loop break alarm (after the MV hasreached 100% or the OUT1 high limit value), the alarm output will
be turned ON.
Likewise, if the PV does not drop to the Loop break alarm bandsetting within the time allotted to assess the Loop break alarm (after
the MV has reached 0% or the OUT1 low limit value), the alarm
output will be turned ON.
When the control action is Direct (Cooling) control:
If the PV does not drop to the Loop break alarm band setting within
the time allotted to assess the Loop break alarm (after the MV hasreached 100% or the OUT1 high limit value), the alarm output will
be turned ON.
Likewise, if the PV does not reach the Loop break alarm bandsetting within the time allotted to assess the Loop break alarm(after the MV has reached 0% or the OUT1 low limit value), thealarm output will be turned ON.
• When EV2 option (If “/020: Heating/Cooling control output”
is selected in [Event output EV2 allocation]) is ordered, or DS,
DA or EV3D option is ordered.
When the control action is Reverse (Heating) control:
After OUT1 MV has reached 100% or the OUT1 high limit value, orafter OUT2 MV has reached 0% or -(OUT2 low limit value), if the
PV does not reach the Loop break alarm band setting within thetime allotted to assess the Loop break alarm, the alarm output will
be turned ON.
Likewise, after OUT1 MV has reached 0% or the OUT1 low limit
value, or after OUT2 MV has reached -100% or -(OUT2 high limit
value), if the PV does not drop to the Loop break alarm band setting
within the time allotted to assess the Loop break alarm, the alarm
output will be turned ON.
When the control action is Direct (Cooling) control:
After OUT1 MV has reached 100% or the OUT1 high limit value, orafter OUT2 MV has reached 0% or -(OUT2 low limit value), if the
PV does not drop to the Loop break alarm band setting within thetime allotted to assess the Loop break alarm, the alarm output will
be turned ON.
Likewise, after OUT1 MV has reached 0% or the OUT1 low limit
value, or after OUT2 MV has reached -100% or -(OUT2 high limit
value), if the PV does not reach the Loop break alarm band setting
within the time allotted to assess the Loop break alarm, the alarm
output will be turned ON.
- 78 -

Characters,
Factory Default

Setting Item, Function, Setting Range
/015

/016
/017

/018

/019
/020

Time signal output:
Turns ON during program control RUN, by setting Time signal
output OFF time and ON time within total time in one pattern.
Output during AT:
Turns ON during AT.
Pattern end output:
Turns ON when Program control ends, and remains ON during
the time set in [Pattern end output time].
Output by communication command:
Communication command 8004H B0 EV1 output 0: OFF, 1: ON
B1 EV2 output 0: OFF, 1: ON
B2 EV3 output 0: OFF, 1: ON
RUN output
Turns ON during program control RUN.
Heating/Cooling control output
Works as Heating/Cooling control output OUT2.

When /001 (High limit alarm) to /012 (High/Low limit with standby independent alarm)
or /015 (Time signal output) is selected, one output can be set to one event output.
When /013 (Heater burnout alarm output), /014 (Loop break alarm), and /016 (Output
during AT) to /019 (RUN output) are selected, each output is common to multiple event
outputs.

Available when the EV2 or EV3(DR) option is ordered.

a2za/ no//

EV2 alarm value 0 Enabled/Disabled• When EV2 alarm value is 0 (zero), alarm action can be Enabled or Disabled.
• Selection item:
no// Disabled
yes/ Enabled
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits withstandby independent alarm) is selected in [Event output EV2 allocation] - excluding /007
(Process high alarm) and /008 (Process low alarm).

a2hy/ //1.0

EV2 alarm hysteresis• Sets EV2 alarm hysteresis.
• Setting range: 0.1 to 1000.0 ( )DC voltage, current inputs: 1 to 10000 (The placement of the decimal point
follows the selection.)
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits withstandby independent alarm) is selected in [Event output EV2 allocation].

a2dy/ ///0EV2 alarm delay time
• Sets EV2 alarm action delay time.
When setting time has elapsed after PV enters the alarm output range, thealarm is activated.
• Setting range: 0 to 10000 seconds
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits withstandby independent alarm) is selected in [Event output EV2 allocation].

- 79 -

Characters,
Factory Default

a2lm/ nomlSetting Item, Function, Setting Range
EV2 alarm Energized/De-energized• Selects Energized/De-energized status for EV2 alarm.
When Energized is selected, and Event output EV2 is conductive (ON) while
the EV2 indicator is lit. Event output EV2 is not conductive (OFF) while the EV2
indicator is not lit.
When De-energized is selected, Event output EV2 is not conductive (OFF)while the EV2 indicator is lit. Event output EV2 is conductive (ON) while theEV2 indicator is not lit.
High limit alarm (Energized)

High limit alarm (De-energized)
EV2 hysteresis

EV2 hysteresis
ON

ON

OFF

OFF
SV

+EV2 value(Fig. 8.6-3)

SV+EV2 value(Fig. 8.6-4)• Selection item:
noml Energized
revs De-energized
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits withstandby independent alarm) is selected in [Event output EV2 allocation].

evo3/ /000

Event output EV3 allocation• Selects Event output EV3 from the table below.
• When changing Event output EV3, refer to Section “9.6 Items to be Initializedby Changing Settings” (p.109).
• Selection item:/000 No event/001 Alarm output, High limit alarm/002 Alarm output, Low limit alarm/003 Alarm output, High/Low limits alarm/004 Alarm output, High/Low limits independent alarm/005 Alarm output, High/Low limit range alarm/006 Alarm output, High/Low limit range independent alarm/007 Alarm output, Process high alarm/008 Alarm output, Process low alarm/009 Alarm output, High limit with standby alarm/010 Alarm output, Low limit with standby alarm/011 Alarm output, High/Low limits with standby alarm/012 Alarm output, High/Low limits with standby independent alarm- 80 -

Characters,
Factory Default

Setting Item, Function, Setting Range
/013

/014

Heater burnout alarm output (When C5W, EIW or W option is ordered):
Detects load current value with CT (current transformer), and if it islower than heater burnout alarm value, Heater burnout alarm
output is turned ON.
Loop break alarm output:
Sets Loop break alarm time and band.
• About the Loop break alarm:
When the control action is Reverse (Heating) control:
If the PV does not reach the Loop break alarm band setting within
the time allotted to assess the Loop break alarm (after the MV hasreached 100% or the OUT1 high limit value), the alarm output will
be turned ON.
Likewise, if the PV does not drop to the Loop break alarm bandsetting within the time allotted to assess the Loop break alarm (after
the MV has reached 0% or the OUT1 low limit value), the alarm
output will be turned ON.
When the control action is Direct (Cooling) control:
If the PV does not drop to the Loop break alarm band setting within
the time allotted to assess the Loop break alarm (after the MV hasreached 100% or the OUT1 high limit value), the alarm output will
be turned ON.
Likewise, if the PV does not reach the Loop break alarm bandsetting within the time allotted to assess the Loop break alarm(after the MV has reached 0% or the OUT1 low limit value), thealarm output will be turned ON.
• When EV2 option (If “/020: Heating/Cooling control output”
is selected in [Event output EV2 allocation]) is ordered, or DS,
DA or EV3D option is ordered.
When the control action is Reverse (Heating) control:
After OUT1 MV has reached 100% or the OUT1 high limit value, orafter OUT2 MV has reached 0% or -(OUT2 low limit value), if the
PV does not reach the Loop break alarm band setting within thetime allotted to assess the Loop break alarm, the alarm output will
be turned ON.
Likewise, after OUT1 MV has reached 0% or the OUT1 low limit
value, or after OUT2 MV has reached -100% or -(OUT2 high limit
value), if the PV does not drop to the Loop break alarm bandsetting within the time allotted to assess the Loop break alarm, thealarm output will be turned ON.
When the control action is Direct (Cooling) control:
After OUT1 MV has reached 100% or the OUT1 high limit value, orafter OUT2 MV has reached 0% or -(OUT2 low limit value), if the
PV does not drop to the Loop break alarm band setting within thetime allotted to assess the Loop break alarm, the alarm output will
be turned ON.
Likewise, after OUT1 MV has reached 0% or the OUT1 low limit
value, or after OUT2 MV has reached -100% or -(OUT2 high limit
value), if the PV does not reach the Loop break alarm band setting
within the time allotted to assess the Loop break alarm, the alarm
output will be turned ON.
- 81 -

Characters,
Factory Default

Setting Item, Function, Setting Range
/015

/016
/017

/018

/019

Time signal output:
Turns ON during program control RUN, by setting Time signal
output OFF time and ON time within total time in one pattern.
Output during AT:
Turns ON during AT.
Pattern end output:
Turns ON when Program control ends, and remains ON during
the time set in [Pattern end output time].
Output by communication command:
Communication command 8004H B0 EV1 output 0: OFF, 1: ON
B1 EV2 output 0: OFF, 1: ON
B2 EV3 output 0: OFF, 1: ON
RUN output:
Turns ON during program control RUN.

When /001 (High limit alarm) to /012 (High/Low limit with standby independent alarm)
or /015 (Time signal output) is selected, one output can be set to one event output.
When /013 (Heater burnout alarm output), /014 (Loop break alarm), and /016 (Output
during AT) to /019 (RUN output) are selected, each output is common to multiple event
outputs.

Available when the EV3D

a3za

/ no//or EI option is ordered.

EV3 alarm value 0 Enabled/Disabled• When EV3 alarm value is 0 (zero), alarm action can be Enabled or Disabled.
• Selection item:
no// Disabled
yes/ Enabled
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits withstandby independent alarm) is selected in [Event output EV3 allocation] - excluding /007
(Process high alarm) and /008 (Process low alarm).

a3hy/ //1.0

EV3 alarm hysteresis• Sets EV3 alarm hysteresis.
• Setting range: 0.1 to 1000.0 ( ),DC voltage, current inputs: 1 to 10000 (The placement of the decimal point
follows the selection.)
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits withstandby independent alarm) is selected in [Event output EV3 allocation].

a3dy/ ///0EV3 alarm delay time
• Sets EV3 alarm action delay time.
When setting time has elapsed after PV enters the alarm output range, thealarm is activated.
• Setting range: 0 to 10000 seconds
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits withstandby independent alarm) is selected in [Event output EV3 allocation].

- 82 -

Characters,
Factory Default

a3lm/ nomlSetting Item, Function, Setting Range
EV3 alarm Energized/De-energized• Selects Energized/De-energized status for EV3 alarm.
When Energized is selected, and Event output EV3 is conductive (ON) while
the EV3 indicator is lit. Event output EV3 is not conductive (OFF) while the EV3
indicator is not lit.
When De-energized is selected, Event output EV3 is not conductive (OFF)while the EV3 indicator is lit. Event output EV3 is conductive (ON) while theEV3 indicator is not lit.
High limit alarm (Energized)

High limit alarm (De-energized)
EV3 hysteresis

EV3 hysteresis
ON

ON

OFF

OFF
SV

+EV3 value(Fig. 8.6-5)

SV+EV3 value(Fig. 8.6-6)• Selection item
noml Energized
revs De-energized
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits withstandby independent alarm) is selected in [Event output EV3 allocation].

- 83 -

Characters,
Factory Default

evi1/ /000Setting Item, Function, Setting Range
Event input DI1 allocation• Selects Event input DI1 from the table below.
• Selection item:
Event Input Function
/000
/001
/002
/003
/004
/005

No event
Pattern number selection
Direct/Reverse action
Program control RUN/STOP
Program control
Holding/Not holding
Program control Advance function

Input ON
(Closed)Input OFF
(Open)

Refer to “About Event input”.
Direct action
RUN
Holding

Reverse action
STOP
Not holding

Advancefunction

Usual control

Available when C5W, EIW, EIT, C5 or EI option is ordered.

• About Event input:
Signal edge action from OFF to ON / ON to OFF is engaged. When power isturned ON, level action is engaged except /005 (Program control Advancefunction).
If the same item – except /001 (Pattern number selection) – is selected in[Event input DI1 allocation] and [Event input DI2 allocation], OR calculation [ifany one is ON (Closed), the function activates] will begin.
An action changed by Event input DI has priority.
If /001 (Pattern number selection) is selected, Patterns 1 to 4 can beselected by ON (Closed) or OFF (Open) status of Event input DI1 and DI2.
Pattern numbers selected by Event input have priority over pattern numbers
selected by keypad operation.
To select pattern numbers by keypad operation, make sure all Event inputs are
in OFF (Open) status.
When /001 (Pattern number selection) is selected only in [Event input
DI1 allocation]
Pattern number*
2
Event input DI1
OFF(Open) ON(Closed)* This number will be selected by keypad.
When /001 (Pattern number selection) is selected only in [Event input
DI2 allocation]
Pattern number*
2
Event input DI2
OFF(Open) ON(Closed)* This number will be selected by keypad.
When /001 (Pattern number selection) is selected in [Event input DI1
allocation] and [Event input DI2 allocation]
Pattern number*
2
3
4
Event input DI1
OFF(Open) ON(Closed) OFF(Open) ON(Closed)
Event input DI2
OFF(Open) OFF(Open) ON(Closed) ON(Closed)* This number will be selected by keypad.

- 84 -

Characters,
Factory Default

evi2/ /000Setting Item, Function, Setting Range
Event input DI2 allocation• Selects Event input DI2 from the table below.
• Selection item:
Event Input Function
/000
/001
/002
/003
/004
/005

No event
Pattern number selection
Direct/Reverse action
Program control RUN/STOP
Program control
Holding/Not holding
Program control Advance function

Input ON
(Closed)Input OFF
(Open)

Refer to “About Event input”.
Direct action
Reverse action
RUN
STOP
Holding
Not holding
Advancefunction

Usual control

Available when C5W, EIW, EIT, C5 or EI option is ordered.

• About Event input:
Signal edge action from OFF to ON / ON to OFF is engaged. When power isturned ON, level action is engaged except /005 (Program control Advancefunction).
If the same item – except /001 (Pattern number selection) – is selected in[Event input DI1 allocation] and [Event input DI2 allocation], OR calculation [ifany one is ON (Closed), the function activates] will begin.
An action changed by Event input DI has priority.
If /001 (Pattern number selection) is selected, Patterns 1 to 4 can beselected by ON (Closed) or OFF (Open) status of Event input DI1 and DI2.
Pattern numbers selected by Event input have priority over pattern numbers
selected by keypad operation.
To select pattern numbers by keypad, make sure all Event inputs are in OFF(Open) status.
When /001 (Pattern number selection) is selected only in [Event input
DI1 allocation]
Pattern number*
2
Event input DI1
OFF(Open) ON(Closed)* This number will be selected by keypad.
When /001 (Pattern number selection) is selected only in [Event input
DI2 allocation]
Pattern number*
2
Event input DI2
OFF(Open) ON(Closed)* This number will be selected by keypad.
When /001 (Pattern number selection) is selected in [Event input DI1,DI2 allocation]
Pattern number*
2
3
4
Event input DI1
OFF(Open) ON(Closed) OFF(Open) ON(Closed)
Event input DI2
OFF(Open) OFF(Open) ON(Closed) ON(Closed)* This number will be selected by keypad.

- 85 -

Characters,
Factory Default

tros/ pv//

Setting Item, Function, Setting Range
Transmission output type
• Selects the transmission output type.
Converting the value (PV, SV, MV transmission) to analog signal every 125 ms,
outputs the value in current or voltage.
• When changing transmission output type, refer to Section “9.6 Items to beInitialized by Changing Settings” (p.109).
• Selection item:
pv// PV transmission
sv// SV transmission
mv// MV transmission
Available when EIT option is ordered.

trlh/ 1370Transmission output high limit• Sets the Transmission output high limit value.
(This value correponds to 20 mA in direct current output.)
Outputs Transmission output low limit value if Transmission output highlimit and low limit value are the same.
If SV or MV transmission is selected, 4 mA is output at the time of program
control STOP (in Standby).
• Setting range:
PV, SV transmission: Transmission output low limit to Input range high limit
Direct current, voltage inputs: -2000 to 10000 (The placement of the decimal
point follows the selection.)MV transmission: Transmission output low limit to 105.0%
Available when EIT option is ordered.

trll/ -200Transmission output low limit• Sets the Transmission output low limit value.
(This value correponds to 4 mA in direct current output.)
Outputs Transmission output low limit value if Transmission output highlimit and low limit value are the same.
If SV or MV transmission is selected, 4 mA is output at the time of Program
control STOP (in Standby).
• Setting range:
PV, SV transmission: Input range low limit to Transmission output high limit
Direct current, voltage inputs: -2000 to 10000 (The placement of the decimal
point follows the selection.)MV transmission: -5.0% to Transmission output high limit
Available when EIT option is ordered.

m_s// min/

Step time unit
• Selects the Step time unit.
• Selection item:
min/ Hours : Minutes
sec/ Minutes : Seconds- 86 -

Characters,
Factory Default

pret/ stops_sv/ ///0s_sl/ pv//

Setting Item, Function, Setting Range
Power restore action• Selects the program status if a power failure occurs mid-program, and it isrestored.
• Selection item:
stop Stops after power is restored.
After power is restored, stops current program control, andreturns to the program control STOP (in Standby).
cont Continues (resumes) after power is restored.
Continues (resumes) previous program control after power isrestored.
hold Suspends after power is restored.
After power is restored, suspends (on hold) current program, andperforms Fixed value control using the step SV at the time ofsuspension.
Pressing the RUN key cancels suspension, and program control
resumes.
Step SV when program control starts• Sets the step SV when Program control starts.
• Setting range: Scaling low limit to Scaling high limit (The placement of thedecimal point follows the selection.)
Program control start type
• Selects the Program control start type.
• Selection item:
PV start, PVR start
100

25

Time
1:00
0:45
PV start point
When Program control starts, the step SV isadvanced to the PV, then Program control
starts.

(Fig. 8.6-7)- 87 -

Characters,
Factory Default

Setting Item, Function, Setting Range
SV start
100

Time
1:00
Program control RUN starts.
Program control starts from the Step SV set in[Step SV when Program start starts].

(Fig. 8.6-8)

petm/ ///0• Selection item:
pv// PV start:
Only when Program control starts, the step SV and step time areadvanced to the PV, then Program control starts.
pvr/ PVR start:
When Program control starts and in pattern repeating, the step SV
and step time are advanced to the PV, then the Program control
starts.
sv// SV start:
When Program control starts, the Program control starts from thestep SV set in [Step SV when program control starts].
Pattern end output time
• Sets Pattern end output retention time after program control is finished.
If ‘Pattern end output’ is selected in [Event output EV allocation], patternend output is turned ON after program control is finished, and the SV Display
flashes p.end.
Setting the time to 0 (zero) seconds causes continuous output, until the STOP
key is pressed for approx. 1 second, or until the power is turned OFF.
By pressing the STOP key for approx. 1 second, Pattern end output is turned
OFF, and the unit returns to program control STOP (in Standby).
When setting the time to 1 to 10000 seconds: Pattern end output is
automatically turned OFF after Pattern end output time has elapsed, and theunit returns to program control STOP (in Standby).
ON
OFF

Pattern end output time

Program control ends
(Fig. 8.6-9)• Setting range: 0 to 10000 seconds- 88 -

Time

Characters,
Factory Default

at_b/ //20Setting Item, Function, Setting Range
AT bias• Sets bias value for the AT.
AT point is automatically determined by the deviation between PV and SV.
AT bias setting works only in Fixed value control.
• Setting range:
Thermocouple, RTD inputs without decimal point: 0 to 50 (0 to 100 )Thermocouple, RTD inputs with decimal point: 0.0 to 50.0 (0.0 to 100.0 )Available when Thermocouple or RTD input is selected in [Input type].

eout/ off/

Output status when input errors occur• Selects the output status when input errors (overscale, underscale) occur.
• Selection item:
off/ Output OFF
on// Output ON
Available for direct current and voltage inputs, and direct current output.

time/ 00:00

edif/ no//

Indication time
• Sets time from no operation status until Displays are switched off.
Displays relight by pressing any key while in Display sleep mode.
When input errors (overscale, underscale) or burnout has occurred, Displays
light up, and error codes are displayed.
If errors are cancelled, Displays will turn off after indication time has passed
again.
• Setting range: 00:00 to 60:00 (Minutes : Seconds)
When set to 00:00, Displays remain ON.
Error indication• Selects error code indication Enabled/Disabled when input errors occur.
When ‘Enabled’ is selected, error codes below are indicated on the PV Display.
Error CodeError Contents
PV has exceeded Input range high limit value (Scaling
er05
high limit value for DC voltage, current inputs).
PV has dropped below Input range low limit value
er06(Scaling low limit value for DC voltage, current inputs).
Input burnout, or PV has exceeded, or dropped below
er07
the Indication range and Control range.
See pages 129, 130.
• Selection item:
no// Disabled
yes/ Enabled

At this stage, settings for Engineering setting mode 2 are complete.
Press the RST key. The unit reverts to RUN mode.

- 89 -

8.7

Clearing Data
If data is cleared, all data will revert to factory default values.
Data can be cleared only in program control STOP (in Standby).
Data cannot be cleared during program control RUN.

CautionOnce data clear is executed, initial settings and each setting should be set again.
(Cleared data cannot be restored.)In preparation for mistaken execution of data clear, please write down initial settings andother setting data in the data sheets at the end of this manual.
• To execute data clear
In RUN mode, and while in program control STOP (in Standby), if the,and STOP keys

(in that order) together are pressed for approx. 3 seconds, the unit enters [Data clear Yes/No].
Characters,
Factory Default

clr// no//

Setting Item, Function, Setting Range
Data clear Yes/No• Selects if data clear is executed or not.
Select ‘Data clear No’, and press the MODE key. Data will not be cleared, andthe unit will return to RUN mode.
Select ‘Data clear Yes’, and press the MODE key. The PV Display indicates
init for approx. 3 seconds, and all data will return to factory default values.
After that the unit automatically reverts to RUN mode.
• Selection item:
no// Data clear No
yes/ Data clear Yes- 90 -

9. Operation
9.1

Performing Program Control

9.1.1 Performing Program Control(1) Before turning the power ON
Check Sections “3. Mounting to the Control Panel (pp.12 - 15)” and “4. Wiring (pp.16 - 25)” before
turning the power ON.
(2) After turning the power ON
Set necessary setting items after turning the power ON.
Refer to Sections “5. Outline of Key Operation and Each Mode (pp.26 - 28)”, “6. Initial Settings (pp.
29 - 37)”, “7. Basic Settings and Operation (pp.38 - 43)” and “8. Explanation of Setting Items”(pp.44 - 90).
(3) Selecting a pattern number
There are 2 methods for selecting a pattern number:
Using the PTN key, or using Event input
Pattern numbers selected by Event input have priority over pattern numbers selected by the
keypad.
To select pattern numbers by keypad, make sure all Event inputs are in OFF (Open) status.
• Using the PTN key
In program control STOP (in Standby), select a pattern from 1 – 10 with the PTN key.
• Using Event input
If /001 (Pattern number selection) is selected in [Event input DI1 allocation] and [Event
input DI2 allocation]:
Select a pattern from 2 – 4, depending on ON (Closed) or OFF (Open) status between
Event input DI1/DI2 terminal and SG terminal.
Select pattern 1 or a pattern from 5 – 10 with the PTN key.
Signal edge action is engaged. However, when power is turned ON, level action is engaged.
If /001 (Pattern number selection) is selected only in [Event input DI1 allocation]:(e.g.) To select Pattern 2, close (ON) 9 and 12 .
(Table 9.1.1-1)

Pattern number
Terminal number
9 Event input DI1*

2

OFF (Open)ON (Closed)* This number will be selected by keypad.
If /001 (Pattern number selection) is selected only in [Event input DI2 allocation]:(e.g.) To select Pattern 2, close (ON) 8 and 12 .
(Table 9.1.1-2)

Pattern number
Terminal number
8 Event input DI2*

2

OFF (Open)ON (Closed)* This number will be selected by keypad.

- 91 -

If /001 (Pattern number selection) is selected in [Event input DI1 allocation] and [Event input
DI2 allocation]:(e.g.) To select Pattern 4, close (ON) 9 and 12 , and close (ON) 8 and 12 .
(Table 9.1.1-3)

Pattern number
Terminal number
9 Event input DI1

*

2

3

4

OFF (Open)ON (Closed)

OFF (Open)ON (Closed)

8 Event input DI2

OFF (Open)OFF (Open)ON (Closed)

ON (Closed)* This number will be selected by keypad.
(4) Perform Program Control
There are 2 ways to start program control.
Using the RUN key, or using Event input.
• Using the RUN key
In program control STOP (in Standby), press the RUN key.
Program control starts.
• Using Event input
If /003 (Program control RUN/STOP) is selected in [Event input DI allocation],
Program control RUN/STOP can be switched, depending on ON (Closed) or OFF (Open)status between Event input DI1 / DI2 terminal and SG terminal.
If /003 (Program control RUN/STOP) is selected in [Event input DI1 allocation],close (ON) 9 and 12 .
Program control will start.
Within 0.1 sec
Controller
actionProgram control STOP (in Standby),

ON (Closed),

OFF (Open)

Program control RUN

0.1 sec minimum
Program control performs by detecting rising signal edge action
from OFF (Open) to ON (Closed) of terminals
and.

(Fig. 9.1.1-1)- 92 -

[Program control start type]
Program control start type can be selected in [Program control start type].
PV start:
Only when program control starts, step SV and step time are advanced to the PV,then program control starts.
However, if step SV set in [Step SV when program control starts] is higher than the PV(when PV start is initiated), then program control will start from the SV set in [Step SV
when program control starts].

100

25

Time
1:00
0:45
PV start point
When program control starts,
step SV is advanced to PV (25 ).

(Fig. 9.1.1-2)
PVR start:
When program control starts and in pattern repeating, the step SV and step time areadvanced to the PV, then the program control starts.
Action is the same as that of PV start. Refer to (Fig. 9.1.1-2).
SV start:
Program control starts from the value set in [Step SV when program control starts].

100

Time
1:00
Program control starts.
Program control starts from the value set
in [Step SV when program control starts].

(Fig. 9.1.1-3)- 93 -

[Power Restore Action]
If power fails during program control RUN, the controller can be operated depending on theselection in [Power restore action].
Progressing time error when power is restored: 1 minute or 1 second• Stops after power is restored:
After power is restored, stops current program control, and returns to program control STOP
(in Standby) status.
• Continues after power is restored:
After power is restored, continues (resumes) program control.
• Suspends after power is restored:
After power is restored, suspends (on hold) current program, and performs Fixed value
control using the step SV at the time of suspension.
Pressing the RUN key cancels suspension, and program control resumes.

- 94 -

[Wait function]
While program control is running, the program does not proceed to the next step
until the deviation between PV and SV enters SV Wait value at the end of step.
The PV Display and PTN/STEP Display flash while the Wait function is working.
Explanation of Wait function• When program pattern is rising:SV

Wait value 10
T

T

500
490

Time

If PV becomes 490 , the Wait function will be cancelled,
proceeding to the next step.
As PV is not in the range of [SV-Wait value], the unit is in Wait status, anddoes not proceed to the next step.
The PV Display and PTN/STEP Display flash during Wait action.

(Fig. 9.1.1-4)• When program pattern is falling:SV

Wait value 10
T

T

510
500

Time

If PV becomes 510 , the Wait function will be cancelled,
proceeding to the next step.
As PV is not in the range of [SV+Wait value], the unit is in Wait
status, and does not proceed to the next step.
The PV Display and PTN/STEP Display flash during Wait action.
Program pattern
PV

Program pattern delayed by T due to the Wait function(Fig. 9.1.1-5)• How to cancel the Wait function
Press the RUN key for approx. 1 second to cancel the Wait function.
The Wait function can also be cancelled by selecting /005 (Program control ADVANCE function)in [Event input DI allocation], and closing (ON) any terminal of Event input DI and SG terminal.

- 95 -

9.1.2

Stopping Program Control
There are 2 methods for stopping program control:
Using the STOP key, or using Event input• Using the STOP key
Press the STOP key for approximately 1 second during Program control RUN.
Program control will stop, and revert to program control STOP (in Standby) status.
• Using Event input
If /003 (Program control RUN/STOP) is selected in [Event input DI allocation],
Program control RUN/STOP can be switched, depending on ON (Closed) or OFF (Open) status
between Event input DI terminal and SG terminal.
If /003 (Program control RUN/STOP) is selected in [Event input DI1 allocation],
open (OFF) 9 and 12 .
Program control will stop, and the unit will revert to program control STOP (in Standby) status.
Within 0.1 sec

Controller action,

ON (Closed),

OFF

Program control STOP (in Standby)

Program control RUN

0.1 sec minimum
Program control stops by detecting falling signal edge action fromON to OFF of terminals

and(Fig. 9.1.2-1)- 96 -.

9.1.3

Suspending Program Control (Program Control HOLD Function)
During program control, progress of current step can be suspended (paused).
Fixed value control is performed using the step SV at the time of suspension.
Pressing the RUN key cancels suspension, and program control resumes.
To suspend program control, there are 2 methods:
Using thekey, or using Event input• Using the
key
During program control RUN, press the

key for approx. 1 second.

Progress of current step is suspended, and then Fixed value control is performed
using the step SV at the time of suspension.
The PV Display and RUN indicator flash.
• Using Event input
If /004 (Program control Holding/Not holding) is selected in [Event input DI allocation],
Program control Holding/Not holding can be switched, depending on ON (Closed) or OFF(Open) status between Event input DI terminal and SG terminal.
If /004 (Program control Holding/Not holding) is selected in [Event input DI1 allocation],close (ON) 9 and 12 .
Progress of current step is suspended, and then Fixed value control is performed using
the step SV at the time of suspension.
The PV Display and RUN indicator flash.
Within 0.1 sec

Controller action,

ON (Closed),

OFF (Open)

Program control suspends.

Program control RUN

0.1 sec minimum
Program control suspends by detecting rising signal edge action
from OFF (Open) to ON (Closed) of terminals
and.

(Fig. 9.1.3-1)- 97 -

9.1.4

Advancing Program Step (Advance Function)
Interrupts current step while program control is running, and proceeds to the beginning of the next
step.
If the Wait function is working, the Wait function will be cancelled, and will proceed to the beginningof the next step.
To advance program step, there are 2 methods:
Using the RUN key, or using Event input• Using the RUN key
During program control RUN, press the RUN key for approx. 1 second.
Current step is stopped, and the unit proceeds to the beginning of the next step.
Each time the RUN key is pressed for approx. 1 second, the unit proceeds to the next step.
• Using Event input
If /005 (Program control Advance function) is selected in [Event input DI allocation],
Program control Advance or usual control can be switched, depending on ON (Closed) orOFF (Open) status between Event input DI terminal and SG terminal.
If /005 (Program control Advance function) is selected in [Event input DI1 allocation],close (ON) 9 and 12 .
Current step is stopped, and the unit proceeds to the beginning of the next step.
Each time terminals 9 and 12 are turned from OFF (Open) to ON (Closed), the unit
proceeds to the next step.
Within 0.1 sec

Controller action,

ON (Closed),

OFF (Open)

Program control RUN (Step 1)

Program control RUN (Step 2)

0.1 sec minimum
Program control advances by detecting rising signal edge action
from OFF (Open) to ON (Closed) of terminals
and.

(Fig. 9.1.4-1)
9.1.5 Speeding up Program Step Time (Step Time Speed-up Function)
To make program step time progress faster, press the FAST key during program control RUN.
While the FAST key is pressed, the step time progress is made 60 times faster.
If the Wait function is set, this function will be disabled as the Wait function has priority.

- 98 -

9.1.6

Changing Program Step SV and Step Time
When step SV and step time are changed during program control RUN, they will change as follows.
• When changing step SV from 500 to 700
SV
700
500

Changing point
Step number

Time

0

1

2

: Pattern before change: Pattern after change(Fig. 9.1.6-1)• When changing step time from 0:30 to 0:50
SV
0:50
0:30
Changing point

Time
Step number

1

0

2

: Pattern before change: Pattern after change(Fig. 9.1.6-2)
9.1.7 Ending Program (Pattern End Function)
If /017 (Pattern end output) is selected in [Event output EV allocation], Pattern end output isturned ON after program control is finished, and the SV Display flashes p.end.
By pressing the STOP key for approximately 1 second, Pattern end output is turned OFF, and the unit
returns to program control STOP (in Standby).
If Pattern end output time is set, Pattern end output is automatically turned OFF after Pattern end
output time has expired. And the unit returns to program control STOP (in Standby).
- 99 -

9.2 Performing Fixed Value Control
9.2.1 Performing Fixed Value Control
Fixed value control (control action that indicating controllers are performing) is performed using
the preset step SV.
To perform Fixed value control, set the step time (of the desired step SV) to ----.
(e.g.) Set Pattern 1, Step 1 SV to 500 , and set its step time to ----.
Press the RUN key. Fixed value control is performed at 500 .
(1) Before turning the power ON
Check Sections “3. Mounting to the Control Panel (pp.12 - 15)” and “4. Wiring (pp.16 - 25)”
before turning the power ON.
(2) After turning the power ON
Set necessary items after turning the power ON.
Refer to Sections “5. Outline of Key Operation and Explanation of Each Mode (pp.26 - 28)”,“6. Initial Settings (pp.29 - 37)”, “7. Basic Settings and Operation (pp.38 - 43)” and “8. Explanationof Setting Items (pp.44 - 90)”.
To perform Fixed value control. set the step SV and step time for the desired pattern.
To set the step time, press the
key at 00:00. ---- will be selected.
Select a PID block number.
(3) Selecting a pattern number to perform
There are 2 methods for selecting a pattern number:
Using the PTN key, or using Event input
Pattern numbers selected by Event input have priority over pattern numbers selected by the
PTN key.
To select pattern numbers by keypad, make sure all Event inputs are in OFF (Open) status.
• Using the PTN key
In program control STOP (in Standby), select a pattern (from 1 – 10) for which step time is set to---- at (2), using the PTN key.
• Using Event input
If /001 (Pattern number selection) is selected in [Event input DI allocation],
select a pattern from 2 – 4, depending on ON (Closed) or OFF (Open) status between
Event input DI1 / DI2 terminal and SG terminal.
To select Pattern 1 or a pattern from 5 – 10, press the PTN key.
Edge action is used. However, when power is turned ON, level action is engaged.
If /001 (Pattern number selection) is selected only in [Event input DI1 allocation],(e.g.) To select Pattern 2, close (ON) 9 and 12 .
(Table 9.2.1-1)

Pattern number
Terminal number
9 Event input DI1*

2

OFF (Open)ON (Closed)* This number will be selected by keypad.

- 100 -

If /001 (Pattern number selection) is selected only in [Event input DI2 allocation],(e.g.) To select Pattern 2, close (ON) 8 and 12 .
(Table 9.2.1-2)

Pattern number
Terminal number
8 Event input DI2*

2

OFF (Open)ON (Closed)* This number will be selected by keypad.
If /001 (Pattern number selection) is selected in [Event input DI1 allocation] and [Event
input DI2 allocation]:(e.g.) To select Pattern 4, close (ON) 9 and 12 , and close (ON) 8 and 12 .
(Table 9.2.1-3)

Pattern number*
Terminal number
9 Event input DI1
OFF (Open)
8 Event input DI2

OFF (Open)

2

3

4

ON (Closed)

OFF (Open)ON (Closed)

OFF (Open)ON (Closed)

ON (Closed)* This number will be selected by keypad.
(4) Executing Fixed Value Control
There are 2 ways to execute Fixed value control:
Using the RUN key, or using Event input• Using the RUN key.
In program control STOP (in Standby), press the RUN key.
The step, for which step time is set to ---- at (2), is held, and Fixed value control is performed
using the step SV.
The RUN indicator flashes during Fixed value control.
• Using Event input
If /003 (Program control RUN/STOP) is selected in [Event input DI allocation],
Program control RUN/STOP can be switched, depending on ON (Closed) or OFF (Open) status
between Event input DI1 / DI2 terminal and SG terminal.
If /003 (Program control RUN/STOP) is selected in [Event input DI allocation],close (ON) 9 and 12 .
The step, for which step time is set to ---- at (2), is held, and Fixed value control is performed
using the step SV.
The RUN indicator flashes during Fixed value control.
Within 0.1 sec

Controller action

Program control STOP (in Standby),

ON (Closed),

OFF (Open)

Fixed value control

0.1 sec minimum
Fixed value control is performed by detecting rising signal edge
action from OFF (Open) to ON (Closed) of terminals
and.

(Fig. 9.2.1-1)- 101 -

9.2.2Finishing Fixed Value Control
There are 2 ways to finish Fixed value control:
Using the STOP key, or using Event input• Using the STOP key
During Fixed value control, press the STOP key for approximately 1 second.
Fixed value control will stop, and the unit will revert to program control STOP (in Standby).
• Using Event input
If /003 (Program control RUN/STOP) is selected in [Event input DI allocation],
Program control RUN/STOP can be switched, depending on ON (Closed) or OFF (Open)status between Event input DI terminal and SG terminal.
If /003 (Program control RUN/STOP) is selected in [Event input DI
open (OFF) 9 and 12 .

allocation],

Fixed value control will stop, and the unit will return to program control STOP (in Standby).
Within 0.1 sec

Controller action

Fixed value control is finished.

Fixed value control RUN,

ON (Closed),

OFF(Open)
0.1 sec minimum
Fixed value control is finished by detecting falling signal edge action
from ON (Closed) to OFF (Open) of terminals
and.

(Fig. 9.2.2-1)- 102 -

9.3

Switching Indication of the SV Display
Press the PTN key to switch the indication of the SV Display.
Each time the PTN key is pressed, switches the indication as follows.

/500

1 /500

RUN mode
Step SV is indicated.

PTN key/500

1 //7.2
PTN key/500

1 00:30
PTN key

Monitor mode
Manipulated variable (MV) is indicated.
(e.g.) 7.2% (The decimal point flashes.)
When EV2 option (if “/020: Heating/Cooling control output” is selectedin [Event output EV2 allocation]) is ordered, or when DS, DA or EV3D
option is ordered, OUT1 MV is a positive number (0.0 to 100.0%), OUT2
MV is a negative number (0.0 to -100.0%).
Monitor mode
Remaining time is indicated.
(e.g.) 00:30 [Colon flashes (in Hours:Minutes or Minutes:Seconds).]
For Fixed value control, ---- is displayed.

- 103 -

9.4

Performing AT

9.4.1

Notice when Performing AT

Notice• Perform the AT during the test operation.
• During the AT, none of the setting items can be set.
• If power failure occurs during AT, AT will stop.
• If AT is cancelled during the process, P, I, D and ARW values will revert to the values before
AT was performed.
• AT will be forced to stop if it has not been completed within 4 hours.
• Sometimes the AT process will not fluctuate if AT is performed at or near room temperature.
Therefore, AT might not finish normally.
[Notice when performing AT during Program control RUN]
• If AT is performed, AT starts from the AT starting point, and step time does not progressuntil AT finishes.
After AT finishes, remaining step will be performed.
SV

T
T

T

T

T

Time
AT EndAT Perform
T: Time delay due to AT: Program pattern before AT is performed.
: Program pattern after AT is performed.

(Fig. 9.4.1-1)- 104 -

9.4.2

AT Action

In order to set each value of P, I, D and ARW automatically, the AT process should be made to fluctuate
to obtain an optimal value.
For DC voltage, current inputs, the AT process will fluctuate around the SV for conditions of [A], [B] and[C] below.
One of 3 types of fluctuation below is automatically selected depending on the deviation between SV
and PV.
[A] If there is a large difference between the SV and PV as the temperature is rising
When AT bias is set to 20 , AT process will fluctuate at the temperature 20 lower than the SV.
Temperature

Temperature 20

SV

lower than the SV(1) Calculates PID constants.
(2) PID constants calculated(3) Controlled by the PID constants
set by AT(4) AT bias value (Factory default: 20 )

(4)

Time

AT starting point
(1)

(2)

(3)

(Fig. 9.4.2-1)[B] When the control is stable
The AT process will fluctuate around the SV.
(1) Calculates PID constants.
(2) PID constants calculated(3) Controlled by the PID constants
set by AT

SV

Time

AT starting point
(1)

(2)

(3)

(Fig. 9.4.2-2)[C] If there is a large difference between the SV and PV as the temperature is falling
When AT bias is set to 20 , AT process will fluctuate at the temperature 20 higher than the SV.
TemperatureSV

Temperature 20

higher than the SV(1) Calculates PID constants.
(2) PID constants calculated(3) Controlled by the PID constants
set by AT(4) AT bias value (Factory default: 20 )

(4)

Time

AT starting point
(1)

(2)

(Fig. 9.4.2-3)- 105 -

(3)

9.4.3

Performing AT
To perform AT, select at// (AT Perform) in [AT Perform/Cancel] in Control parametersetting mode. And press the RST key.
Basic Procedure

Setting Details

RUN mode/500

During program control RUN

1 /500+ MODE keys
Control parametersetting mode

Control parameter setting mode
AT Perform/Cancel

at//1 ----

keyat//

1 at//AT Perform/Cancel
AT Perform

RST key
RUN mode/500

1 /500- 106 -

RUN mode (AT Perform)
The AT indicator flashes while AT is
performing.

9.5

Input Value Correction
Input value can be corrected in [Sensor correction coefficient] and [Sensor correction] in Engineering
setting mode 1.
In [Sensor correction coefficient], set the slope of temperature change.
In [Sensor correction], set the difference between temperatures before correction and after
correction.
PV after input correction is expressed by the following formula.
PV after input correction = Current PV x Sensor correction coefficient + (Sensor correction value)
The following shows an example of input value correction using ‘Sensor correction coefficient’and ‘Sensor correction value’.

After correction
Y

750
700

340
300

Y'
Corrected from 750
to 700X'
X
Corrected from 300
to 340300

750

Before correction

Slope before correction
Slope after correction(Fig. 9.5-1)(1) Select any 2 points of PV to be corrected, and determine the PV after correction.
PV before correction: 300
PV after correction: 340
PV before correction: 750
PV after correction: 700(2) Calculate Sensor correction coefficient from Step (1).
(Y' – X') / (Y – X) = (700 – 340) / (750 - 300) = 0.8(3) Enter a PV value of 300 using an mV generator or dial resistor.
(4) Set Step (2) value as a Sensor correction coefficient.
(5) Read the PV.
240 will be indicated.
(6) Calculate the sensor correction value.
Calculate the difference between ‘PV after correction’ and Step (5) PV.
340 – 240 = 100(7) Set Step (6) value as a Sensor correction value.
(8) Enter an electromotive force or resistance value equivalent to 750
using an mV generator or dial resistor.
(9) Read the PV, and confirm that 700 is indicated.

- 107 -

(Example) Setting Sensor correction coefficient to 0.800, and Sensor correction to 100.0
Basic procedure

Setting details

RUN mode/500

RUN mode
During program control RUN

1 /500+ MODE keys (3 sec)
Engineering setting
mode 1Engineering setting mode 1
Set value locklock

/ ----

MODE key (2 times)
Sensor correction coefficientsok// 1.000

keyor

Sensor correction coefficient
Set to 0.800.

sok// 0.800

MODE key
Sensor correctionso/// //0.0

key

or

so//

/ 100.0

Sensor correction
Set to 100.0 .

RST key
RUN mode/500

1 /500- 108 -

RUN mode
During program control RUN

9.6

Items to be Initialized by Changing Settings
If settings are changed, the following items will be initialized.
: Initialized
X: Not initialized

Setting item to be changed

Event
outputEV1
allocation

Event
outputEV2
allocation

Event
outputEV3
allocation

Transmission
outputxxxx

Loop break alarm band

x

x

x

x

Sensor correction coefficient

x

x

x

x

Sensor correction

x

x

x

x

SVTC bias

x

x

x

x

Scaling high limit

x

x

x

x

Scaling low limit

x

x

x

x

Item to be initialized
Loop break alarm time

Input
Type

EV1 alarm value 0 Enabled/Disabled

x

x

x

x

EV1 alarm hysteresis

x

x

x

x

EV1 alarm delay time

x

x

x

x

EV1 alarm Energized/De-energized

x

x

x

x

EV2 alarm value 0 Enabled/Disabled

x

x

x

x

EV2 alarm hysteresis

x

x

x

x

EV2 alarm delay time

x

x

x

x

EV2 alarm Energized/De-energized

x

x

x

x

EV3 alarm value 0 Enabled/Disabled

x

x

x

x

EV3 alarm hysteresis

x

x

x

x

EV3 alarm delay time

x

x

x

x

EV3 alarm Energized/De-energized

x

x

x

x

Transmission output high limit *

x

x

x

Transmission output low limit *

x

x

x

Step SV when program control starts

x

x

x

x

AT bias

x

x

x

x

* When PV transmission or SV transmission is selected, and if input type is changed, these setting
items will be initialized.

- 109 -

10. Action Explanation
10.1

OUT1 Action
ActionControl action

Reverse (Heating) Action

Direct (Cooling) Action

P-bandP-band

ON

ON

OFF

OFF
SV

SV

⑮

⑮

⑮

⑯

⑯

⑯

+⑮

+⑮

+⑮

12 V DC

12/0 V DC

0 V DC

-⑯

-⑯

-⑯

⑮
Relay contact
outputNon-contact voltage
output⑯

Cycle action is performed
according to deviation.

Indicator (OUT)
Green

⑮

⑯

⑯

+⑮

+⑮

+⑮

0 V DC

0/12 V DC

12 V DC

-⑯

-⑯

-⑯

Cycle action is performed
according to deviation.

Cycle action is performed
according to deviation.

+⑮+⑮

Direct current
output

⑮

-⑯

+⑮

+⑮

+⑮

20 mA DC-⑯

Cycle action is performed
according to deviation.

4 mA DC

4 mA DC-⑯-⑯

Changes continuously
according to deviation.

Lit+⑮
20 mA DC-⑯-⑯

Changes continuously
according to deviation.

Lit

Unlit

Unlit

: Turns ON (lit) or OFF (unlit).

10.2

OUT1 ON/OFF Control Action
ActionControl action

Reverse (Heating) Action

Direct (Cooling) Action

Hysteresis

Hysteresis

ON

ON

OFF

OFF
SV

SV
Relay contact
outputNon-contact voltage
outputDirect current
outputIndicator (OUT)
Green

⑮

⑮

⑮

⑮

⑯

⑯

⑯

⑯

+⑮

+⑮

+⑮

0 V DC

0 V DC+⑮

12 V DC

-⑯

-⑯

-⑯

+⑮

+⑮

+⑮

20 mA DC

4 mA DC

4 mA DC

-⑯

Lit

-⑯

Unlit

-⑯

Unlit

: Turns ON (lit) or OFF (unlit).

- 110 -

12 V DC-⑯+⑮

20 mA DC-⑯

Lit

10.3 Heater Burnout Alarm Action
ON
Heaterburnout alarm

OFF
Heater burnout alarm value
Large
Small
Load current

⑰

⑰

⑱

⑱

Lit

Unlit

OutputIndicator

Event output EV1 terminal numbers: 17, 18
Event output EV2 terminal numbers: 19, 20
Event output EV3 terminal numbers: 6, 7

- 111 -

10.4 Alarm Action
Low limit alarmHigh limit alarm
EV1 hysteresis

EV1 hysteresis

ON

ON

OFF

OFF

Alarm action-EV1 value
Alarm output

SV+EV1 value-EV1 value+ side+ side- side- sideHigh/Low limits alarm

SV +EV1 value

High/Low limits independent alarm
EV1 hysteresis

EV1 hysteresis
Alarm action

ON

ON

OFF

OFF
EV1 valueSV

EV1 value

EV1 low limit value

SV

Alarm output
High/Low limit range alarm

High/Low limit range independent

EV1 hysteresis

EV1 hysteresis

ON

ON

OFF

OFF

Alarm action

EV1 valueSV

EV1 value

EV1 low limit value
点SV

Alarm output
Process high alarm

Process low alarm

EV1 hysteresis

EV1 hysteresis

ON

ON

OFF

OFF

Alarm action

EV1 value
Alarm output- 112 -

EV1 value

High limit with standby

Low limit with standby alarm
EV1 hysteresis

EV1 hysteresis
ON

ON

OFF

OFF

Alarm action-EV1 value
Alarm output

SV+EV1 value-EV1 value+ side+ side- side- sideHigh/Low limits with standby alarm

SV +EV1 value

High/Low limits with standby independent
EV1 hysteresis

EV1 hysteresis
Alarm action

ON

ON

OFF

OFF
EV1 valueSV

EV1 value

EV1 low limit value

SV

EV1

Alarm output：Event output EV1 terminals 17, 18: ON：Event output EV1 terminals 17, 18: ON or OFF：Event output EV1 terminals 17, 18: OFF: Alarm output is in standby.
• EV1 value, EV1 high limit value, and EV1 hysteresis represent EV1 alarm value, EV1 high limit alarm valueand EV1 alarm hysteresis respectively.
EV1 will be substituted by EV2 or EV3.
• EV1 indicator lights up when Event output EV1 terminals 17 and 18 are ON, andturns off when their output terminals 17 and 18 are OFF.
EV2 indicator lights up when Event output EV2 terminals 19 and 20 are ON, andturns off when their output terminals 19 and 20 are OFF.
EV3 indicator lights up when Event output EV3 terminals 6 and 7 are ON, andturns off when their output terminals 6 and 7 are OFF.

- 113 -

10.5 OUT2 (Heating/Cooling Control) Action
Heating P-band (Cooling P-band)
ON
Control action

ON(Cooling
control)OFF

Heating
control
OFF
SV⑮
Relay contact output(OUT1)

⑯

⑮

⑮

⑯

⑯

Cycle action is performed
according to deviation.

Non-contact voltage
output (OUT1)

+⑮

+⑮

+⑮

-⑯

-⑯

-⑯

12 V DC

0 V DC

12/0 V DC

Cycle action is performed
according to deviation.

Direct current output(OUT1)+⑮+⑮+⑮

20 mA DC

20 to 4 mA DC-⑯-⑯

4 mA DC-⑯

Changes continuously
according to deviation.

⑲
Relay contact output(OUT2)

⑳

⑲

⑲

⑳

⑳

Cycle action is performed
according to deviatio.

⑲⑲

0/12 V DC

12 V DC+⑲
Non-contact voltage
output (OUT2)

0 V DC-⑳⑳⑳

Cycle action is performed
according to deviatio.

+⑲

Direct current output(OUT2)+⑲

4 mA DC-⑳

4 to 20 mA DC-⑳+⑲
20 mA DC-⑳

Changes continuously
according to deviation.

Indicator (OUT)
Lit

Unlit

Unlit

Lit

Indicator (EV2): Turns ON (lit) or OFF (unlit).
: Represents Heating control action.
: Represents Cooling control action.

- 114 -

10.6

OUT2 (Heating/Cooling Control) Action (When Setting Dead Band)
Heating P-band
Control action

Dead band(Cooling P-band)
ON(Cooling
control)
OFF

ON
Heating
control
OFF
SV⑮
Relay contact output(OUT1)

Non-contact voltage
output (OUT1)

Direct current output(OUT1)

⑯

⑮

⑮

⑯

⑯

Cycle action is performed
according to deviation.

+⑮

+⑮
-⑯

+⑮

12/0 V DC

12 V DC

0 V DC

-⑯

-⑯

+⑮

+⑮

Cycle action is performed
according to deviation.

+⑮
20 mA DC-⑯

20 to 4 mA DC-⑯

4 mA DC-⑯

Changes continuously
according to deviation.

⑲
Relay contact output(OUT2)

⑳

⑲

⑲

⑳

⑳

Cycle action is performed
according to deviation.

+⑲

Non-contact voltage
output (OUT2)

0 V DC-⑳+⑲

Direct current output(OUT2)

4 mA DC-⑳+⑲
0/12 V DC+⑲
12 V DC

-⑳

-⑳

+⑲

+⑲

Cycle action is performed
according to deviation.

4 to 20 mA DC-⑳

Changes continuously
according to deviation.

20 mA DC-⑳

Indicator (OUT)
Lit

Unlit

Unlit

Lit

Indicator (EV2): Turns ON (lit) or OFF (unlit).
: Represents Heating control action.
: Represents Cooling control action.

- 115 -

10.7

OUT2 (Heating/Cooling control) Action (When Setting Overlap band)
Heating P-band

Control action(Cooling P-band)

ON
Heating
controlON(Cooling
control)

Overlap band

OFF

OFF
SV

⑮
Relay contact output(OUT1)⑯⑮⑯⑯

Cycle action is performed
according to deviation.

+⑮
Non-contact voltage
output (OUT1)

⑮

+⑮

+⑮

12/0 V DC

12 V DC-⑯

0 V DC

-⑯

-⑯

+⑮

+⑮

Cycle action is performed
according to deviation.

+⑮
Direct current output(OUT1)

20 mA DC

20 to 4 mA DC-⑯-⑯

Changes continuously
according to deviation.

⑲

Relay contact output(OUT2)⑳+⑲

Non-contact voltage
output (OUT2)

0 V DC-⑳

4 mA DC

-⑯

⑲

⑲

⑳

⑳

+⑲

+⑲

Cycle action is performed
according to deviation.

0/12 V DC-⑳

12 V DC-⑳

Cycle action is performed
according to deviation.

+⑲

Direct current output(OUT2)

4 mA DC-⑳+⑲
4 to 20 mA DC-⑳

Changes continuously
according to deviation.

+⑲
20 mA DC-⑳

Indicator (OUT)
Lit

Unlit

Unlit

Lit

Indicator (EV2): Turns ON (lit) or OFF (unlit).
: Represents Heating control action.
: Represents Cooling control action.

- 116 -

11. Specifications
11.1

Standard Specifications
RatingRated scale

Input

Input Range-200 to 1370
-328 to 2498
-200.0 to 400.0-328.0 to 752.0-200 to 1000
-328 to 1832
0 to 1760
32 to 3200
0 to 1760
32 to 3200
0 to 1820
32 to 3308
-200 to 800-328 to 1472
-200.0 to 400.0-328.0 to 752.0-200 to 1300
-328 to 2372
0 to 1390
32 to 2534
0 to 2315
32 to 4199
-200.0 to 850.0-328.0 to 1562.0-200 to 850-328 to 1562
-200.0 to 500.0-328.0 to 932.0-200 to 500-328 to 932-2000 to 10000 (*)-2000 to 10000 (*)-2000 to 10000 (*)-2000 to 10000 (*)-2000 to 10000 (*)-2000 to 10000 (*)

K
J
R
S
B
E
T
N
PLC(W/Re5-26)
Pt100
JPt1004 – 20 mA
0 – 20 mA
0–1V
0–5V
1–5V
0 – 10 V(*) Scaling and decimal point place selection are possible.

Input
Input

Thermocouple

RTD
Direct current

DC voltage

K, J, R, S, B, E, T, N, PL- , C(W/Re5-26)
External resistance: 100
max.
However, for B input, External resistance: 40
max.
Pt100, JPt100 3-wire type
Allowable input lead wire resistance: 10
max. per wire
0 to 20 mA DC, 4 to 20 mA DC
Input impedance: 50
Allowable input current: 50 mA DC max.
0 – 1 V DC
Input impedance: 1 M minimum
Allowable input voltage: 5 V DC max.
Allowable signal source resistance: 2 k max.
0 – 5 V DC, 1 – 5 V DC, 0 – 10 V DC
Input impedance: 100 k minimum
Allowable input voltage: 15 V DC max.
Allowable signal source resistance: 100
max.

Event input(C5W, EIW, EIT, C5, EI options)

Input point
Circuit current
when closed
Action2 points
Approx. 16 mA
Edge action
When the power is turned ON, level action is engaged.
- 117 -

Resolution
1 ( )0.1 ( )
1 ( )
1 ( )
1 ( )
1 ( )
1 ( )
0.1 ( )
1 ( )
1 ( )
1 ( )
0.1 ( )1 ( )
0.1 ( )
1 ( )
1
1
1
1
1
1

Output
Control
output
OUT1

Relay contact1aNon-contact
voltage(for SSR drive)
Direct current
Event output EV1
Relay contact
1aControl capacity: 3 A 250 V AC (resistive load)
1 A 250 V AC (inductive load cosφ=0.4)
Electrical life: 100,000 cycles
Minimum applicable load: 10 mA 5 V DC
12 V DC 15%
Max. 40 mA (short circuit protected)
4 - 20 mA DC (Resolution: 12000)
Load resistance: Max. 550
Control capacity: 3 A 250 V AC (resistive load)
1 A 250 V AC (inductive load cos =0.4)
Electrical life: 100,000 cycles
Minimum applicable load: 10 mA 5 V DC

Event output EV2[EV2, EV3(DR) options]

Relay contact
1aControl capacity: 3 A 250 V AC (resistive load)
1 A 250 V AC (inductive load cos =0.4)
Electrical life: 100,000 cycles
Minimum applicable load: 10 mA 5 V DC

Event output EV3(EV3D , EI options)

Relay contact
1aControl capacity: 3 A 250 V AC (resistive load)
1 A 250 V AC (inductive load cos =0.4)
Electrical life: 100,000 cycles
Minimum applicable load: 10 mA 5 V DC

Control output OUT2
(EV2, EV3D

options)

Relay contact 1a[EV2, EV3(DR) options]Non-contact voltage(for SSR drive)

Control capacity: 3 A 250 V AC (resistive load)
1 A 250 V AC (inductive load cos =0.4)
Electrical life: 100,000 cycles
Minimum applicable load: 10 mA 5 V DC
12 V DC 15 %Max. 40 mA (short circuit protected)(DS, EV3DS options)

Direct current(DA, EV3DA options)

4 – 20 mA DC (Resolution: 12000)
Load resistance: Max. 550

Transmission output(EIT

Resolution
OutputOutputaccuracy
Response time
Insulated power output
option)(P24
option)Output voltage
Ripple voltage
Max. load
current

12000
4 – 20 mA DC (Load resistance: Max. 550
Within)0.3% of Transmission output span

400 ms + Input sampling period (0%→90%)
24 3 V DC (when load current is 30 mA DC)
Within 200 mV DC (when load current is 30 mA DC)
30 mA DC- 118 -PowerPower supply

Power consumption

Inrush current

Circuit insulation
configuration

PCB1 00PCB1 10Model
Power supply
100 – 240 V AC, 50/60 Hz 24 V AC/DC, 50/60 Hz
Allowable
85 – 264 V AC
20 – 28 V AC/DC
fluctuation range
Power supply
Power consumption
100 – 240 V AC Approx. 8 VA max. (When the maximum number of
options are ordered: Approx. 11 VA max.)
24 V AC
Approx. 5 VA max. (When the maximum number of
options are ordered: Approx. 8 VA max.)
24 V DC
Approx. 5 W max. (When the maximum number of
options are ordered: Approx. 8 W max.)
Power supply
Inrush current
100 – 240 V AC Max. 14 to 34 A
24 V AC
Max. 34 A
24 V DC
Max. 34 A
When C5W or C5 option is ordered:
8

9

10

11

12

DI1
DI2
RS-485
13
14
15

POWER
SUPPLY

Electrically insulated
1
CT1
CT2

OUT1
3

16
CPU

17

21

EV1

TC
RTD
DC
(Input)

18
19
20
19

2

EV2
OUT2

P24

22
23
24

When C5W option is ordered
When C5 option is ordered

20(Fig. 11.1-1)
When OUT1 and OUT2 are a non-contact voltage output or direct current
output, OUT1 is not electrically insulated from OUT2.

Insulation resistance: 10 M
- 119 -

minimum, at 500 V DC

When EIW or W option is ordered:
8

9

12

DI1
DI2
13
14

POWER
SUPPLY

Electrically insulated
1
CT1
CT2

15
OUT1

3

16
CPU

17

21

EV1

TC
RTD
DC
(Input)

18
19
20

EV2
OUT2

19
P24
20

2

22
23
24

When EIW option is ordered
When W option is ordered(Fig. 11.1-2)

When OUT1 and OUT2 are a non-contact voltage output or direct current
output, OUT1 is not electrically insulated from OUT2.

Insulation resistance: 10 M

- 120 -

minimum, at 500 V DC

When EIT or EI option is ordered:
8

9

12

6
TA
or
EV3

DI1
DI2
13
14

POWER
SUPPLY

7

Electrically insulated

15
OUT1
16
CPU

17
EV1

TC
RTD
DC
(Input)

18
19
20

21

EV2
OUT2

22
23
24

19

TA: When EIT option is ordered.
EV3: When EI option is ordered.

P24
20(Fig. 11.1-3)

When OUT1 and OUT2 are a non-contact voltage output or direct current output,
OUT1 is not electrically insulated from OUT2.

Insulation resistance: 10 M minimum, at 500 V DC
Dielectric strength
Between input terminal and power terminal: 1.5 kV AC for 1 minuteBetween output terminal and power terminal: 1.5 kV AC for 1 minuteBetween output terminal (P24) and power terminal: 500 V AC for 1 minute- 121 -

Recommended Environment-10 to 55 (However, non-condensing or no icing)Ambient temperature
Ambient humidity
35 to 85 %RH (However, non-condensing)Environmental
RoHS directive compliant
specification
Performance
Base accuracy
Thermocouple

At ambient temperature 23(for a single unit mounting)Within 0.2% of each input span 1 digit
However, R, S inputs, 0 to 200 (32 to 392 ): Within 6 (12 )B input, 0 to 300 (32 to 572 ): Accuracy is not guaranteed.
K, J, E, T, N inputs, Less than 0 (32 ): Within 0.4% of input span
1 digit

RTD
Direct current
DC voltage
Effect of ambient
temperature
Input sampling period
Time indication accuracy
Temperature
Setting
resolution
Time
General Structure
WeightExternal dimensions
Mounting
Case
Front panel
Drip-proof/Dust-proof
Display
PV Display

SV Display

WithinWithin0.1% of each input span 1 digit
0.2% of each input span 1 digit

Within 50 ppm/

of each input span

125 msWithin0.5% of setting time
Thermocouple, RTD input without decimal point: 1 ( )Thermocouple, RTD input with decimal point: 0.1 ( )DC voltage, current input: 1
1 minute or 1 second

Approx. 220 g
96 x 96 x 68 (W x H x D) (Depth of control panel interior: 60 mm)
Flush (Applicable panel thickness: 1 to 7 mm)
Flame-resistant resin, Color: Black
Membrane sheet
IP66 for front panel only
In RUN mode, indicates process variable (PV).
In setting mode, indicates setting characters.
Flashes during Wait action or program control HOLD in program control.
7-segments Red LED display 4.5 digits
Character size: 24.0 x 11.0 mm (H x W)
In RUN mode, indicates desired value (SV), Output manipulated
variable (MV), or Remaining time (TIME).
Retains display indication at power OFF.
In setting mode, indicates the set values.
7-segments Green LED display 4.5 digits
Character size:14.0 x 7.0 mm (H x W)

- 122 -

PTN/STEP
Display

Indicator

PTN indicator
STEP indicator
PTN/STEP
indicator

Actionindicator

OUT (Green)

RUN (Orange)
EV1 (Red)
EV2 (Red)

EV3 (Red)AT (Orange)
T/R (Orange)

Indicates the pattern number or step number.
Each time the DISP key is pressed, the PTN/STEP Display and the
PTN/STEP indicator alternately indicate the pattern number and step
number.
Flashes during Wait action, or when the step number is indicated.
If ‘SV digital reception’ is selected in [Communication protocol],r is indicated.
7-segments Orange LED display 1.5-digits
Character size:14.0 x 7.0 mm (H x W)
Lights up when the pattern number is indicated on the PTN/STEP
Display.
Orange LED
Lights up when the step number is indicated on the PTN/STEP Display.
Orange LED
LED for the pattern number or step number lights up.
Each time the DISP key is pressed, the PTN/STEP indicator and the
PTN/STEP Display alternately indicate the pattern number and step
number.
Green LED 12 pieces (PTN, STEP, 1 to 10)
Lights up when control output OUT1 is ON.
Lights up when Heating output [DS, DA, EV2 (if /020 is selected in
Event output EV2 allocation), EV3D options] is ON.
For direct current output type, flashes corresponding to the MV in 125
ms cycles.
Lights up during program control RUN.
Flashes during program control HOLD or Fixed value control.
Lights up when Event output EV1 is ON.
Lights up when Event output EV2 [(EV2, EV3(DR) options] is ON.
Lights up when control output OUT2 [Cooling output: DS, DA, EV2 (if/020 is selected in Event output EV2 allocation), EV3D options] isON.
For direct current output type (DA, EV3DA options), flashes
corresponding to the MV in 125 ms cycles.
Lights up when Event output EV3 (EV3D□, EI options) is ON.
Flashes while AT is performing.
Lights up during Serial communication (C5W, C5 options)
TX (transmitting) output.

- 123 -

Setting Structure
Function key

UP keyFAST

DOWN key
FAST key

RSTRESET key

MODE

MODE keyPTN

PATTERN key

DISP

Display key

RUN

RUN key

STOP

STOP key

Program Performance
Number of patterns
Number of steps
Number of repetitions
Program time range
Wait value

In setting mode, increases the numerical value.
By pressing for approx. 1 second during program
control RUN, time progress pauses, and program
control HOLD function initiates.
In setting mode, decreases the numerical value.
In setting mode, makes the numeric value change
faster.
During program control RUN, makes step time
progress 60 times faster.
In setting mode, registers the setting data, andmoves to RUN mode.
In setting mode, registers the setting data, andmoves to the next setting item.
During program control STOP (in Standby),
selects a program pattern number to perform or toset.
By pressing this key during program control RUN,
the unit moves to Monitor mode. In Monitor mode,switches the indication item.
During RUN mode, the PTN/STEP Display and
PTN/STEP indicator alternately indicates thepattern number and step number.
In setting mode, registers the setting data, andmoves back to the previous mode.
Performs program control, or cancels program
control HOLD function while program control isheld. By pressing for approx. 1 second during
program control RUN, stops performing step, andproceeds to the next step (Advance function
initiates.).
Stops program control by pressing for approx. 1
second during program control RUN, or cancels
pattern end output.

10 patterns (Linkable)
100 (10 steps/pattern)
0 to 10000 times (Repetitions disabled when set to 0)
0 to 99 hours 59 minutes/step, or 0 to 99 minutes 59 seconds/step(When ---- is set: Fixed value control is performed using step SV.)
Thermocouple, RTD inputs: 0 to 20% of input span
DC voltage, current input: 0 to 20% of scaling span (The placement of
the decimal point follows the selection.)(The Wait function is disabled when set to 0 or 0.0.)- 124 -

Control PerformanceControl action

OUT1 proportionalband (P)Integral time (I)Derivative time (D)OUT1 proportional
cycle
ARW
OUT1 ON/OFF
hysteresis
OUT1 high limit,
OUT1 low limit
Standard Function
Wait function

Program control HOLD
function

Advance function

Pattern link andrepetitions function

Step SV when program
control starts• PID control action (with AT function)• PI control action (When derivative time is set to 0.)• PD control action (When integral time is set to 0.)• P control action (When integral and derivative time are set to 0.)• ON/OFF control action (When proportional band is set to 0 or 0.0.)
Thermocouple, RTD inputs without decimal point:
0 to Input span ( )Thermocouple, RTD inputs with decimal point:
0.0 to Input span ( )DC voltage, current inputs:
0.0 to 1000.0%(ON/OFF control action when set to 0 or 0.0.)
0 to 3600 seconds (Setting the value to 0 disables the function.)
0 to 1800 seconds (Setting the value to 0 disables the function.)
0.5, 1 to 120 seconds
0 to 100%
0.1 to 1000.0 ( )DC voltage, current inputs:
1 to 10000 (The placement of the decimal point follows the selection.)
0 to 100% (Direct current output: -5 to 105%)

During program control, the program does not proceed to the next step
until the deviation between PV and SV enters SV Wait value at the endof step.
The PV Display and PTN/STEP Display flash while the Wait function is
working.
During program control RUN, progress of current step can besuspended.
During program control RUN, if the
key is pressed for approx. 1
second, the program control HOLD function is enabled.
While the program control HOLD function is working, the PV Display
and RUN indicator flash.
Pressing the RUN key cancels suspension, and program control
resumes.
Interrupts current step during program control RUN, and proceeds to thebeginning of the next step.
During program control RUN, if the RUN key is pressed for approx. 1
second, the Advance function is enabled.
Patterns 1 to 10 can be linked to the next pattern (of each pattern).
For Pattern 10, Pattern 1 can be linked.
Number of repetitions for Patterns 1 to 10: 0 to 10000 times.
For repetitions of linked patterns, the whole linked pattern will be
repeated as many times as set for the former pattern.
Program control starts from the step SV set in [Step SV when program
control starts].
- 125 -

Program control start type Selects program control start type.
PV start:
Only when program control starts, the step SV is advanced to the PV,then program control starts.
PVR start:
When program control starts and in pattern repeating, the step SV isadvanced to the PV, then program control starts.
SV start:
Program control starts from the step SV which has been set inPower restore action[Step SV when program control starts].
If power fails during program control RUN, the controller can be
operated depending on the selection in [Power restore action].
Stops after power is restored:

Step time speed-up
function
Event output EV1

Alarm action

Set value
ActionAlarm hysteresis

OutputStops current program control, and returns to program control STOP
(in Standby).
Continues after power is restored:
Continues (Resumes) previous program control after power isrestored.
Suspends after power is restored:
Suspends (on hold) current program control, and performs Fixedvalue control using the step SV at the time of suspension.
Pressing the RUN key cancels suspension, and program control
resumes.
Progressing time error when power is restored: 1 minute or 1 second
During program control RUN, makes step time progress 60 times faster
while the FAST key is pressed.
If the Wait function is set, the Wait function has priority.
Output turns ON or OFF, depending on Event conditions selected in[Event output EV1 allocation]:
Alarm output, Heater burnout alarm output, Loop break alarm output,
Time signal output, Output during AT, Pattern end output, Output by
communication command, RUN output
Selects any alarm action in [Event output EV allocation] from thefollowing:High limit alarm, Low limit alarm, High/Low limits alarm, High/Low
limits independent alarm, High/Low limit range alarm,
High/Low limit range independent alarm, Process high alarm,
Process low alarm, High limit with standby alarm, Low limit withstandby alarm, High/Low limits with standby alarm, High/Low limits
with standby independent alarm
Alarm Energized/De-energized action are applied to the above alarms,
totaling 24 alarm types. No alarm action can also be selected.
Factory default value: 0
ON/OFF action
0.1 to 1000.0 ( )DC voltage, current inputs: 1 to 10000 (The placement of the decimal
point follows the selection.)
EV output for which Alarm output (001 to 012) is selected in [Event
output EV allocation].
- 126 -

Loop break alarm

Loop break alarm time
Loop break alarm bandOutputTime signal output

Output during AT
Pattern end output

RUN output
Data clear function

When Loop break alarm is selected in [Event output EV allocation],
detects actuator trouble (heater burnout, heater adhesion) or sensor
burnout.
0 to 200 minutes
Thermocouple, RTD inputs without decimal point: 0 to 150 ( )Thermocouple, RTD inputs with decimal point: 0.0 to 150.0 ( )DC voltage, current inputs: 0 to 1500 (The placement of the decimal
point follows the selection.)
EV output for which Loop break alarm output is selected in [Event
output EV allocation].
When Time signal output is selected in [Event output EV allocation],
Time signal output activates during Time signal output ON time within
one pattern total time.
Time signal output ON time follows Time signal output OFF time after
the program control starts.
During Wait action or program control HOLD, progress time of Timesignal output stops.
When step time is changed during program control RUN, Time signal
output timing is re-calculated using the pattern time after change.
When ‘Output during AT’ is selected in [Event output EV allocation],turns ON during AT.
When Pattern end output is selected in [Event output EV allocation],
Pattern end output is turned ON during Pattern end output time after
program control is finished, and the SV Display flashes p.end.
By pressing the STOP key for approximately 1 second, Pattern end
output is turned OFF, and the unit returns to program control STOP (inStandby). If Pattern end output time is set, Pattern end output is
automatically turned OFF after Pattern end output time has expired. The
unit returns to program control STOP (in Standby).
When ‘RUN output’ is selected in [Event output EV allocation],turns ON during program control RUN.
During program control STOP (in Standby), if the,and STOPkeys (in that order) are pressed together for approx. 3 seconds, the PV
Display indicates clr/, and the unit enters [Data clear Yes/No].
Select yes/ (Data clear Yes), and press the MODE key. The PV
Display indicates init for approx. 3 seconds, and all data will return
to factory default values.

- 127 -

Attached Functions
Sensor correction
coefficient
Sensor correction
Set value lockPower failurecountermeasureSelf-diagnosis

Automatic cold junction
temperaturecompensation
Indication range,
Control range

Input error (Overscale,
Underscale)

Sets slope of input value from a sensor.
Corrects the input value from a sensor.
Locks the set values to prevent setting errors.
The setting data is backed up in the non-volatile IC memory.
The CPU is monitored by a watchdog timer, and if an abnormal status
occurs, the controller is switched to warm-up status, turning all outputs
OFF.
Detects the temperature at the connection terminal between thethermocouple and the instrument, and maintains it at the same status asif the reference junction location temperature were at 0 (32 ).
Thermocouple input:[Input range low limit value – 50 (100 )] to[Input range high limit value + 50 (100 )]RTD input:[Input range low limit value – (Input span x 1%)] to[Input range high limit value + 50 (100 )]DC voltage, current inputs:[Scaling low limit value – (Scaling span x 1%)] to[Scaling high limit value + (Scaling span x 10%)]
If input errors (overscale, underscale) occur, the following will be
performed depending on the selection in [Error indication].
If ‘Disabled’ is selected in [Error indication]:
Overscale occurs if PV has exceeded Input range high limit value(Scaling high limit value for DC voltage, current inputs). The PV Display
indicates PV.
Underscale occurs if PV has dropped below Input range low limit value(Scaling low limit value for DC voltage, current inputs). The PV Display
indicates PV.
If ‘Enabled’ is selected in [Error indication]:
Overscale occurs if PV has exceeded Input range high limit value(Scaling high limit value for DC voltage, current inputs). The PV Display
indicates the PV and error code er05 alternately.
Underscale occurs if PV has dropped below Input range low limit value(Scaling low limit value for DC voltage, current inputs). The PV Display
indicates the PV and error code er06 alternately.

- 128 -

Burnout
If burnout occurs, the following will be performed depending on the selection in [Error indication].
If ‘Disabled’ is selected in [Error indication]:
If PV has exceeded Indication range and Control range, the PV Display flashes ~~~~. OUT1 andOUT2 are turned OFF (OUT1 low limit value for direct current output, OUT2 low limit value for DA,
EV3DA).
If PV has dropped below Indication range and Control range, the PV Display flashes ____.
OUT1 and OUT2 are turned OFF (OUT1 low limit value for direct current output, OUT2 low limit value
for DA, EV3DA).
If thermocouple or RTD input is burnt out, or if DC voltage (0 – 1 V DC) input is disconnected,
the PV Display flashes ~~~~.
If the following DC voltage or current input is disconnected:
4 – 20 mA DC, 1 – 5 V DC inputs: The PV Display flashes.
0 – 20 mA DC, 0 – 5 V DC, 0 – 10 V DC inputs: The PV Display indicates the value corresponding
with 0 mA DC or 0 V DC input.
If Alarm output, Heater burnout alarm output or Loop break alarm output is selected in [Event output
EV allocation], Event output will be turned ON under the alarm active conditions.
Burnout is enabled even in program control STOP (in Standby) status. However, Event output is notturned ON.
[Output status when input errors occur] can be used only for controllers using direct current andvoltage inputs, and direct current output.
Output status differs depending on selection in [Output status when input errors occur].
Output Status
OutputContents,
statusOUT1
OUT2
when input
Indication
Direct (Cooling) Reverse (Heating) Direct (Cooling) Reverse (Heating)errors occur
actionactionactionactionON (20 mA) or
ON or
OUT1 high limit
OUT2 high limit
OFF (4 mA) or OFF orvalue (*)
value (*)[~~~~]
OUT1 low limit OUT2 low limit
OFF (4 mA) or
OFF orflashes.
value
value
OUT1 low limit
OUT2 low limit
value
value
ON (20 mA) or ON or
OUT1 highOUT2 highOFF orOFF (4 mA) or
limit value (*)
limit value (*)[____]
OUT2 low limit
OUT1 low limit
OFF (4 mA) or OFF or
flashes.
value
value
OUT1 low limit OUT2 low limit
value
value
(*) Outputs a value between OFF (4 mA) and ON (20 mA) or between OUT1 (or OUT2) low limit value
and OUT1 (or OUT2) high limit value, depending on deviation.

If ‘Enabled’ is selected in [Error indication]:
If PV has exceeded Indication range and Control range, the PV Display indicates ~~~~ ander07 alternately. OUT1 and OUT2 are turned OFF (OUT1 low limit value for direct current output,
OUT2 low limit value for DA, EV3DA).
If PV has dropped below Indication range and Control range, the PV Display indicates ____ ander07 alternately. OUT1 and OUT2 are turned OFF (OUT1 low limit value for direct current output,
OUT2 low limit value for DA, EV3DA).
If thermocouple, RTD or DC voltage (0 to 1 V DC) input is burnt out or disconnected, the PV Display
indicates ~~~~ and er07 alternately.
If the following DC voltage or current input is disconnected:
4 – 20 mA DC, 1 – 5 V DC inputs: The PV Display indicates ____ and er07 alternately.
0 – 20 mA DC, 0 – 5 V DC, 0 – 10 V DC inputs: The PV Display indicates the value corresponding
with 0 mA DC or 0 V DC input.
- 129 -

If Alarm output, Heater burnout alarm output or Loop break alarm output is selected in [Event output
EV allocation], Event output will be turned ON under the alarm active conditions.
Burnout is enabled even in program control STOP (in Standby) status. However, Event output is
not turned ON.
[Output status when input errors occur] can be used only for controllers using direct current andvoltage inputs, and direct current output.
Output status differs depending on selection in [Output status when input errors occur].
Outputstatuswhen input
errors occur

Output Status

Contents,
Indication

OUT1
OUT2
Direct (Cooling) Reverse (Heating) Direct (Cooling) Reverse (Heating)actionactionactionactionON (20 mA) or
ON or
Indicates
OUT1 high limit
OUT2 highOFF (4 mA) or OFF or[~~~~] and value (*)
limit value (*)
OUT1 low limit OUT2 low limit
OFF
(4
mA)
or
OFF or[er07]
value
value
OUT1 low limit
OUT2 low limit
alternately.
value
value
ON (20 mA) or ON or
Indicates
OUT1 high limit OUT2 highOFF (4 mA) or
OFF orvalue (*)[____] andlimit value (*)
OUT1 low limit
OUT2 low limit
OFF (4 mA) or OFF or[er07]
value
value
OUT1 low limit OUT2 low limit
alternately.
value
value

(*) Outputs a value between OFF (4 mA) and ON (20 mA) or between OUT1 (or OUT2) low limit value
and OUT1 (or OUT2) high limit value, depending on deviation.

Warm-up indication

Consolecommunication

Other
Accessories included
Accessories soldseparately

After the power supply to the instrument is turned on, the PV Display
indicates the input type, and SV Display indicates input range high limit
value (for thermocouple, RTD inputs) or scaling high limit value (fordirect current and voltage inputs) for approximately 3 seconds.
Control output is OFF (0 mA for direct current output), and Transmission
output is 0 mA.
By connecting to the tool cable (CMD-001, sold separately) to the tool
cable connector, the following operations can be conducted from anexternal computer, using the Console software SWC-PCB101M.
Console communication and Serial communication (C5W, C5 options)cannot be used together.
(1) Reading and writing of step SV, step time, PID and various set values(2) Reading of PV and action status(3) Function change
Communication line: TTL level

Mounting brackets: 1 set
Instruction manual (excerpt): 1 copy
Terminal cover
CT (Current transformer):CTL-6-S-H (For Heater burnout alarm output 20 A)
CTL-12-S36-10L1U (For Heater burnout alarm output 100 A)
Tool cable CMD-001- 130 -

11.2

Optional Specifications
Event output EV2[EV2, EV3(DR) options]

Heating/Cooling control
output [EV2(DR), DS, DA,
EV3D

Output will be turned ON or OFF depending on the Event conditions
selected in [Event output EV2 allocation].
One output can be selected from the following:
Alarm output, Heater burnout alarm output, Loop break alarm output,
Time signal output, Output during AT, Pattern end output, Output by
communication command, RUN output, Heating/Cooling control
Relay contact output
Performs Heating/Cooling control.

options]

Thermocouple, RTD inputs without decimal point: 0 to Input span ( )Thermocouple, RTD inputs with decimal point: 0.0 to Input span ( )DC voltage, current inputs: 0.0 to 1000.0%(ON/OFF control when set to 0.0)
Integral time (I)
0 to 3600 seconds (Setting to 0 disables the function.)(Same as OUT1 integral time)
Derivative time (D)0 to 1800 seconds (Setting to 0 disables the function.)(Same as OUT1 derivative time)
OUT2 proportional cycle 0.5, 1 to 120 seconds
Thermocouple, RTD inputs:
Overlap/Dead band
-200.0 to 200.0 ( )DC voltage, current inputs:-2000 to 2000 (The placement of the decimal point follows the selection.)
Thermocouple, RTD inputs:
OUT2 ON/OFF
0.1 to 1000.0 ( )hysteresis
DC voltage, current inputs:
1 to 10000 (The placement of the decimal point follows the selection.)
OUT2 high limit,
0 to 100% (DA, EV3DA: –5 to 105%)
OUT2 low limit(1) Air cooling (Linear characteristics)
OUT2 cooling method(2) Oil cooling (1.5th power of the linear characteristics)(3) Water cooling (2nd power of the linear characteristics)
Insulated power output
OUT2 proportionalband(P24 option)

Output voltage
Ripple voltage
Max. load current
Event output EV3

24 3 V DC (when load current is 30 mA DC)
Within 200 mV DC (when load current is 30 mA DC)
30 mA DC
Output will be turned ON or OFF depending on the Event conditions
selected in [Event output EV3 allocation].
( EV3D , EI options)
One output can be selected from the following:
Alarm output, Heater burnout alarm output, Loop break alarm output,
Time signal output, Output during AT, Pattern end output, Output by
communication command, RUN output
The following operations can be carried out from an external computer.
Serial communication(1) Reading and writing of the step SV, step time, PID values and various(C5W, C5 options)set values(2) Reading of the PV and action status (3) Function change
Communication line
EIA RS-485
Communication method Half-duplex communication
Communication speed 9600, 19200, 38400 bps (Selectable by keypad)
Synchronization method Start-stop synchronization- 131 -

Communication
protocolData bit/Parity
Stop bit:
Communication
Data
ProtocolformatStart bit
Data bit
ParityStop bit
Response delay time

Shinko protocol, SV digital transmission, SV digital reception, Modbus
ASCII mode, Modbus RTU mode (Selectable by keypad)
Communication converter IF-400 is available for Shinko protocol andModbus protocol.
Data bit: 7, 8 (Selectable by keypad)
Parity: Even, Odd, No parity (Selectable by keypad)
1, 2 (Selectable by keypad)
Shinko Protocol

Modbus ASCII

Modbus RTU

1
1
1
7 (8)
7 (8)
8
Selectable
Selectable
Even (No parity, Odd) Even (No parity, Odd) No parity (Even, Odd)
Selectable
Selectable
Selectable
1 (2)
1 (2)
1 (2)
Selectable
Selectable
Selectable
Response from the controller can be delayed after receiving commandfrom the host computer.
If Response delay time is changed via software communication, thechanged delay time will be reflected from that response data.
• Setting range: 0 to 1000 ms

SV digital transmission

When ‘SV digital transmission (Shinko protocol)’ is selected in[Communication protocol], step SV can be digitally transmitted to theconnected Shinko digital indicating controllers with the communication
function (C5 option).
When ‘SV digital reception (Shinko protocol)’ is selected in[Communication protocol], step SV can be received via SVTC
command from the connected Shinko programmable controllers
PCA1 or PCB1 (on which ‘SV digital transmission’ should be selected
in [Communication protocol]).

PCB1

Controllers with communication function (Max. 31 units)

YA(-)

YA(-)

YA(-)

YA(-)

YB(+)

YB(+)

YB(+)

YB(+)

SG

SG

SG

SG

(Fig. 11.2-1)- 132 -

Heater burnout alarm(C5W, EIW, W options)

Rated current:

Setting accuracy
Transmission output(EIT option)

Event input(C5W, EIW, EIT, C5, EI
options)

Monitors heater current with CT (current transformer), and detects
heater burnout.
EV output, for which Heater burnout alarm is selected in [Event output
EV allocation], will be turned ON or OFF.
This alarm is also activated when the input is burnt out.
20 A, 100 A (Must be specified when ordering.)
Single-phase: Detects burnout with CT1 input.
3-phase: Detects burnout with CT1 and CT2 inputs.
5% of the rated current
Converting the value (PV, SV or MV transmission) to analog signal
every 125 ms, outputs the value in current.
Outputs Transmission output low limit value if Transmission output
high limit and low limit value are the same.
If SV or MV transmission is selected, 4 mA is output during program
control STOP (in Standby).
Action can be switched by event conditions selected in [Event input
DI allocation].
One function can be selected from the following:
Pattern number selection, Direct/Reverse action, Program control
RUN/STOP, Program control Holding/Not holding, Program control
Advance function
Signal edge action from OFF to ON / ON to OFF is engaged.
However, when power is turned ON, level action is engaged except
Program control Advance function.

- 133 -

12. Troubleshooting
Warning

Turn the power supply to the instrument off before wiring or checking. Working on or
touching the terminal with the power switched on may result in severe injury or death due
to electrical shock.
Moreover, the instrument must be grounded before the power supply to the instrument isturned on.
If any malfunctions occur, refer to the following items after checking that power is being supplied tothe controller.
12.1 Indication
Problem
The PV Display
indicates er01.

Possible Cause
Internal non-volatile IC memory is
defective.

The PV Display
indicates er02.

Data writing (in non-volatile IC
memory) error when power failure
occurs.
Overscale.
PV has exceeded Input range highlimit value (scaling high limit value
for DC voltage, current inputs).
Underscale.
PV has dropped below Input range
low limit value (scaling low limit
value for DC voltage, current
inputs).
PV has exceeded the Indication
range and Control range.
Burnout of thermocouple, RTD or
disconnection of DC voltage(0 to 1 V DC)

The PV Display
indicates PV ander05 (*)
alternately.
The PV Display
indicates PV ander06 (*)
alternately.
The PV Display
flashes ~~~~.
The PV Display
indicates ~~~~and er07 (*)
alternately.

(*) Available when ‘Enabled’ is selected in [Error indication].

- 134 -

Solution
Cancel the error code by pressing the
MODE key, and perform data clearing.(p.90)
If the problem is not still solved after poweris turned ON again, contact our agency orus.
Cancel the error code by pressing the
MODE key, and execute data clearing.
(P.90)
Check the input signal source.

Check the input signal source and wiring of
input terminals.

Check the input signal source.
Replace each sensor.
How to check whether the sensor isburnt out:
[Thermocouple]
If the input terminals of the instrument areshorted, and if a value around room
temperature is indicated, the instrument islikely to be operating normally, however, thesensor may be burnt out.
[RTD]
If approx. 100
of resistance is connectedto the input terminals between A-B of the
instrument and between B-B is shorted, andif a value around 0 (32 ) is indicated, theinstrument is likely to be operating normally,
however, the sensor may be burnt out.
[DC voltage (0 to 1 V DC)]If the input terminals of the instrument areshorted, and if a scaling low limit value isindicated, the instrument is likely to be
operating normally, however, the signal wire
may be disconnected.

Problem

The PV Display
flashes [____].
The PV Display
indicates [____]and [er07] (*)
alternately.

The PV Display
indicates [er10].
The indication of
PV Display isirregular or
unstable.

Possible Cause
Check whether the input terminalsof thermocouple, RTD or DC
voltage (0 to 1 V DC) are securely
mounted to the instrument input
terminals.
PV has dropped below the
Indication range and Control
range.
Check whether input signal wirefor direct current (4 to 20 mA DC)
or DC voltage (1 to 5 V DC) is
disconnected.

Solution
Connect the sensor terminals to the
instrument input terminals securely.

Check whether sensor input or
temperature unit ( or ) iscorrect.
Sensor correction coefficient or
Sensor correction value is
unsuitable.
Check whether the sensor
specification is correct.
AC leaks into the sensor
circuit.
There may be equipment thatinterferes with or makes noise near
the instrument.

Select the sensor input and temperatureunit ( or ) correctly.

Check the input signal source and wiring of
input terminals.

How to check whether the input signal
wire is disconnected:[Direct current (4 to 20 mA DC)]If the input to the input terminals of the
instrument is 4 mA DC and if a scaling low
limit value is indicated, the instrument islikely to be operating normally, however, thesignal wire may be disconnected.
[DC voltage (1 to 5 V DC)]If the input to the input terminals of the
instrument is 1 V DC and if a scaling low
limit value is indicated, the instrument islikely to be operating normally, however, thesignal wire may be disconnected.
Check whether input signal wire for Connect the input signal wire to the terminals
direct current (4 to 20 mA DC) or DC of this instrument securely.
voltage (1 to 5 V DC) is securely
connected to the instrument input
terminals.
Check if polarity of thermocouple Wire them correctly.
or compensating lead wire iscorrect.
Check whether codes (A, B, B) of
RTD agree with the instrument
terminals.
Contact our agency or us.
Hardware malfunction(*) Available when ‘Enabled’ is selected in [Error indication].

- 135 -

Set them to suitable values.

Use a sensor with appropriate
specifications.
Use an ungrounded type sensor.
Keep the instrument clear of any potentiallydisruptive equipment.

Problem
The PV Display
keeps indicating
the value set in[Scaling low limit].

Possible Cause
Check whether the input signal
wire for direct current (0 to 20 mADC) and DC voltage (0 to 5 V DC,
0 to 10 V DC) is disconnected.

Check whether the input terminals
for direct current (0 to 20 mA DC)
or DC voltage (0 to 5 V DC, 0 to 10
V DC) are securely connected tothe instrument input terminals.

Solution
Check the input signal wires of direct
current (0 to 20 mA DC) and DC voltage(0 to 5 V DC, 0 to 10 V DC).
How to check whether the input signal
wire is disconnected:[Direct current (0 to 20 mA DC)]If the input to the input terminal of thiscontroller is 4 mA DC, and if a value(converted value from scaling high, low limit
setting) corresponding to 4 mA DC isindicated, the controller is likely to be
operating normally, however, the input
signal wire may be disconnected.
[DC voltage (0 to 5 V DC, 0 to 10 V DC)]If the input to the input terminal of thiscontroller is 1 V DC, and if a value(converted value from scaling high, low
limit setting) corresponding to 1 V DC isindicated, the controller is likely to be
operating normally, however, the input
signal wire may be disconnected.
Connect the input terminals of direct current
or DC voltage to the input terminals of this
instrument securely.

12.2 Key Operation
Problem
The following
values cannot be
set:
Step SV, step time,
OUT1 proportionalband, EV alarm
value, etc.
Only step SV, steptime and EV
alarm value can be
set. Other settings
are not possible.
The setting
indication does notchange in the input
range, and newvalues are unable
to be set.
A pattern number
cannot be selectedby the PTN key.

Possible CauseSet value lock (Lock 1 orLock 4) is selected.

Solution
Release the lock in [Set value lock].

AT is performing.

Cancel AT.

Set value lock (Lock 2 orLock 5) is selected.

Release the lock in [Set value lock].

Scaling high or low limit value may
be set at the point where the value
does not change.

Set it to a suitable value.

A pattern number might beselected by means of Event input.
The pattern number selected via
Event input has priority over apattern number selected by the
PTN key.

Open (OFF) the SG terminal and any one
terminal of Event input (DI1, DI2).

- 136 -

12.3 Control
Problem
Even thoughprogram control
is executed, thecontrol is advanced
and the program isfinished soon.
Step does notprogress.

PV does not rise or
fall.

Control output
OUT1 or OUT2
remains in an ON
status.
The control output
OUT1 or OUT2
remains in an OFF
status.
The PV Display
indicates er20.

Possible Cause
The step time of the performing
pattern number is set to 00:00.

SolutionSet the step time to a suitable value.

Program control is suspended(program control HOLD function).
While program control issuspended, the PV Display and
RUN indicator flash.
The Wait function is working.
If the Wait function works, the
PV Display and PTN/STEP
Display flash.
Sensor is out of order.
Check whether the sensor orcontrol output terminals are
securely mounted to the
instrument input terminals.
Check whether the wiring of
sensor or control output terminals
is correct.
OUT1 or OUT2 low limit value is set
to 100% or higher.

Press the RUN key.
Suspension of control will be cancelled, andprogram control will resume.

Press the RUN key for approx. 1 second
to cancel the Wait function.
The Wait function will be cancelled,
and program control will resume.
Replace the sensor.
Ensure that the sensor or control output
terminals are mounted to the instrument
input terminals securely.
Wire them correctly.

Set it to a suitable value.

OUT1 or OUT2 high limit value isset to 0% or less.

Set it to a suitable value.

AT has not been completed even if
approx. 4 hours have elapsed
since AT started.

Manually set P, I, D and ARW values.

- 137 -

13. Character Table• Explanation of Setting Item
(e.g.) Setting Step 1 SV
Upper left: PV Display
Indicates setting item characters.
Lower left: PTN/STEP Display, SV Display
The PTN/STEP Display indicates the selected pattern number, and indication is different
depending on the setting item.
The SV Display indicates factory default.
Right side: Indicates the setting item, explanation of its function, and setting range.
PV Display

Setting item name, function, setting range (or selection item)

temp

1 ///0PTN/STEP Display

13.1

Step 1 SV• Setting range:
Scaling low limit to Scaling high limit
SV Display

Error CodeError codes are indicated on the PV Display.
Error Codeer01

Error Contents
Internal non-volatile IC memory (EEPROM) is
defective.

Occurrence
When poweris turned ON

er02

Data writing error when power failure occurs.

When poweris turned ON

er05

PV has exceeded Input range high limit value (Scaling When operatinghigh limit value for DC voltage, current inputs).

er06

PV has dropped below Input range low limit value(Scaling low limit value for DC voltage, current inputs).

When operating

er07

Input burnout or disconnection.
Input value is outside of the Indication range andControl range.
Hardware malfunction or errors(This error cannot be cancelled.)

When operating

AT has not been completed even if approx. 4 hours
have elapsed since AT started.
When input errors have occurred.

After AT starts

1 /500 (*1)
1 /500 (*1)
1 /500 (*2)
1 /500 (*2)
1 /500 (*2)

er10

1 /500er20

1 /500 (*1)(*1) Can be cancelled by the MODE key.
(*2) An error code is indicated when Enabled is selected in [Error indication].

- 138 -

When operating

13.2

Pattern Setting Mode
Characters,
Factory Default

temp

1 ///0Setting Item, Setting Range
Step 1 SV
Scaling low limit to Scaling high limit

PTN/STEP
indicator 1 lights.

time

1 00:00
PTN/STEP
indicator 1 lights.

_pid

1 ///1

Step 1 time----, 00:00 to 99.59 (Time unit follows the selection in [Step timeunit].)
If thekey is pressed at 00:00, ---- will be indicated.
If ---- is set, Fixed value control will be performed using Step 1 SV.
Step 1 PID block number
1 to 10PTN/STEP
indicator 1 lights.

temp

1 ///0

Step 2 SV
Scaling low limit to Scaling high limit

PTN/STEP
indicator 2 lights.

time

1 00:00
PTN/STEP
indicator 2 lights.

_pid

1 ///1

Step 2 time----, 00:00 to 99.59 (Time unit follows the selection in [Step timeunit].)
If thekey is pressed at 00:00, ---- will be indicated.
If ---- is set, Fixed value control will be performed using Step 2 SV.
Step 2 PID block number
1 to 10PTN/STEP
indicator 2 lights.

temp

1 ///0

Step 3 SV
Scaling low limit to Scaling high limit

PTN/STEP
indicator 3 lights.

time

1 00:00
PTN/STEP
indicator 3 lights.

_pid

1 ///1

Step 3 time----, 00:00 to 99.59 (Time unit follows the selection in [Step timeunit].)
If thekey is pressed at 00:00, ---- will be indicated.
If ---- is set, Fixed value control will be performed using Step 3 SV.
Step 3 PID block number
1 to 10PTN/STEP
indicator 3 lights.

- 139 -

Data

Characters,
Factory Default

temp

1 ///0Setting Item, Setting Range
Step 4 SV
Scaling low limit to Scaling high limit

PTN/STEP
indicator 4 lights.

time

1 00:00
PTN/STEP
indicator 4 lights.

_pid

1 ///1

Step 4 time----, 00:00 to 99.59 (Time unit follows the selection in [Step timeunit].)
If thekey is pressed at 00:00, ---- will be indicated.
If ---- is set, Fixed value control will be performed using Step 4 SV.
Step 4 PID block number
1 to 10PTN/STEP
indicator 4 lights.

temp

1 ///0

Step 5 SV
Scaling low limit to Scaling high limit

PTN/STEP
indicator 5 lights.

time

1 00:00
PTN/STEP
indicator 5 lights.

_pid

1 ///1

Step 5 time----, 00:00 to 99.59 (Time unit follows the selection in [Step timeunit].)
If thekey is pressed at 00:00, ---- will be indicated.
If ---- is set, Fixed value control will be performed using Step 5 SV.
Step 5 PID block number
1 to 10PTN/STEP
indicator 5 lights.

temp

1 ///0

Step 6 SV
Scaling low limit to Scaling high limit

PTN/STEP
indicator 6 lights.

time

1 00:00
PTN/STEP
indicator 6 lights.

_pid

1 ///1

Step 6 time----, 00:00 to 99.59 (Time unit follows the selection in [Step timeunit].)
If thekey is pressed at 00:00, ---- will be indicated.
If ---- is set, Fixed value control will be performed using Step 6 SV.
Step 6 PID block number
1 to 10PTN/STEP
indicator 6 lights.

- 140 -

Data

Characters,
Factory Default

temp

1 ///0Setting Item, Setting Range
Step 7 SV
Scaling low limit to Scaling high limit

PTN/STEP
indicator 7 lights.

time

1 00:00
PTN/STEP
indicator 7 lights.

_pid

1 ///1

Step 7 time----, 00:00 to 99.59 (Time unit follows the selection in [Step timeunit].)
If thekey is pressed at 00:00, ---- will be indicated.
If ---- is set, Fixed value control will be performed using Step 7 SV.
Step 7 PID block number
1 to 10PTN/STEP
indicator 7 lights.

temp

1 ///0

Step 8 SV
Scaling low limit to Scaling high limit

PTN/STEP
indicator 8 lights.

time

1 00:00
PTN/STEP
indicator 8 lights.

_pid

1 ///1

Step 8 time----, 00:00 to 99.59 (Time unit follows the selection in [Step timeunit].)
If thekey is pressed at 00:00, ---- will be indicated.
If ---- is set, Fixed value control will be performed using Step 8 SV.
Step 8 PID block number
1 to 10PTN/STEP
indicator 8 lights.

temp

1 ///0

Step 9 SV
Scaling low limit to Scaling high limit

PTN/STEP
indicator 9 lights.

time

1 00:00
PTN/STEP
indicator 9 lights.

_pid

1 ///1

Step 9 time----, 00:00 to 99.59 (Time unit follows the selection in [Step timeunit].)
If thekey is pressed at 00:00, ---- will be indicated.
If ---- is set, Fixed value control will be performed using Step 9 SV.
Step 9 PID block number
1 to 10PTN/STEP
indicator 9 lights.

- 141 -

Data

Characters,
Factory Default

temp

1 ///0Setting Item, Setting Range
Step 10 SV
Scaling low limit to Scaling high limit

PTN/STEP
indicator 10 lights.

time

1 00:00
PTN/STEP
indicator 10 lights.

_pid

1 ///1

Step 10 time----, 00:00 to 99.59 (Time unit follows the selection in [Step timeunit].)
If thekey is pressed at 00:00, ---- will be indicated.
If ---- is set, Fixed value control will be performed using Step 10 SV.
Step 10 PID block number
1 to 10PTN/STEP
indicator 10 lights.

rept

1 ///0

Number of repetitions
0 to 10000

PTN/STEP
indicator turns off.

chin

1 ---PTN/STEP

Pattern link---- Pattern link Disabledchin Pattern link Enabledindicator turns off.

- 142 -

Data

13.3

Event Setting Mode
Characters,
Factory Default

a1//

1 ///0Setting Item, Setting Range
EV1 alarm value
High limit alarm-(Input span) to Input span (*1)
Low limit alarm-(Input span) to Input span (*1)
High/Low limits alarm
0 to Input span (*1)
High/Low limits independent alarm
0 to Input span (*1)
High/Low limit range alarm
0 to Input span (*1)
High/Low limit range independent alarm 0 to Input span (*1)
Process high alarm Input range low limit to Input range high limit (*2)
Process low alarm Input range low limit to Input range high limit (*2)
High limit with standby alarm-(Input span) to Input span (*1)
Low limit with standby alarm-(Input span) to Input span (*1)
High/Low limits with standby alarm
0 to Input span (*1)
High/Low limits with standby independent alarm 0 to Input span (*1)(*1) For DC voltage, current inputs, the input span is the same as the scaling span.
(The placement of the decimal point follows the selection.)(*2) For DC voltage, current inputs, input range low (or high) limit value is the sameas scaling low (or high) limit value. (The placement of the decimal point follows
the selection.)
Available when /001 (High limit alarm) to /012 (High/Low limits with standby

independent alarm) is selected in [Event output EV1 allocation].

a1h/

1 ///0EV1 high limit alarm value
Setting range: Same as those of EV1 alarm value.

Available when /004 (High/Low limits independent alarm), /006 (High/Low
limit range independent alarm) or /012 (High/Low limits with standby
independent alarm) is selected in [Event output EV1 allocation].

t1of

1 00:00

TS1 output OFF time
Setting range:
00:00 to 99:59 (Time unit follows the selection in [Step time unit].)Available when /015 (Time signal output) is selected in [Event output EV1
allocation].

t1on

1 00:00

TS1 output ON time
Setting range:
00:00 to 99:59 (Time unit follows the selection in [Step time unit].)Available when /015 (Time signal output) is selected in [Event output EV1
allocation].

a2//

1 ///0EV2 alarm value
Setting range: Same as those of EV1 alarm value.
Available when /001 (High limit alarm) to /012 (High/Low limits with standby

independent alarm) is selected in [Event output EV2 allocation].

a2h/

1 ///0EV2 high limit alarm value
Setting range: Same as those of EV1 alarm value.

Available when /004 (High/Low limits independent alarm), /006 (High/Low
limit range independent alarm) or /012 (High/Low limits with standby
independent alarm) is selected in [Event output EV2 allocation].

- 143 -

Data

Characters,
Factory Default

t2of

1 00:00

Setting Item, Setting Range
TS2 output OFF time
Setting range:
00:00 to 99:59 (Time unit follows the selection in [Step time unit].)Available when /015 (Time signal output) is selected in [Event output EV2
allocation].

t2on

1 00:00

TS2 output ON time
Setting range:
00:00 to 99:59 (Time unit follows the selection in [Step time unit].)Available when /015 (Time signal output) is selected in [Event output EV2
allocation].

a3//

1 ///0EV3 alarm value
Setting range: Same as those of EV1 alarm value.
Available when /001 (High limit alarm) to /012 (High/Low limits with standby

independent alarm) is selected in [Event output EV3 allocation].

a3h/

1 ///0EV3 high limit alarm value
Setting range: Same as those of EV1 alarm value.

Available when /004 (High/Low limits independent alarm), /006 (High/Low
limit range independent alarm) or /012 (High/Low limits with standby
independent alarm) is selected in [Event output EV3 allocation].

t3of

1 00:00

TS3 output OFF time
Setting range:
00:00 to 99:59 (Time unit follows the selection in [Step time unit].)Available when /015 (Time signal output) is selected in [Event output EV3
allocation].

t3on

1 00:00

TS3 output ON time
Setting range:
00:00 to 99:59 (Time unit follows the selection in [Step time unit].)Available when /015 (Time signal output) is selected in [Event output EV3
allocation].

- 144 -

Data

13.4 Control Parameter Setting Mode
Characters,
Factory Defaultat/// ----

pblk/ ///1p///

1 //10i///

1 /200Setting Item, Setting Range
AT Perform/Cancel---- AT Cancel
AT// AT Perform
PID block number
1 to 10
OUT1 proportional band
Setting range:
Thermocouple, RTD input without decimal point: 0 to input span ( )Thermocouple, RTD input with decimal point: 0.0 to input span ( )DC voltage, current inputs: 0.0 to 1000.0%
Integral time
Setting range: 0 to 3600 secondsd///

Derivative time
Setting range: 0 to 1800 seconds

arw/

ARW
Setting range: 0 to 100%c///

OUT1 proportional cycle
Setting range: 0.5, 1 to 120 seconds

1 //50
1 //50/ ///3hys// //1.0

olh// /100oll// ///0orat/ ///0cact/ air/

Data

Available when OUT1 is relay contact output or non-contact voltage output type.

OUT1 ON/OFF hysteresis
Setting range:
0.1 to 1000.0 ( )DC voltage, current inputs: 1 to 10000 (The placement of the decimal
point follows the selection.)
OUT1 high limit
Setting range:
OUT1 low limit to 100%
Direct current output type: OUT1 low limit to 105%
OUT1 low limit
Setting range:
0% to OUT1 high limit
Direct current output type: -5% to OUT1 high limit
OUT1 rate-of-change
Setting range: 0 to 100 %/sec
OUT2 cooling method
air/ Air cooling (Linear characteristics)
oil/ Oil cooling (1.5th power of the linear characteristics)
wat/ Water cooling (2nd power of the linear characteristics)
Available when EV2 option (if “/020: Heating/Cooling control output” is selectedin [Event output EV2 allocation]) is ordered, or when DS, DA or EV3D
ordered.

- 145 -

option isCharacters,
Factory Default

p_b/

1 //10Setting Item, Setting Range

Data

OUT2 proportional band
Setting range:
Thermocouple, RTD input without decimal point: 0 to Input span ( )Thermocouple, RTD input with decimal point: 0.0 to Input span ( )DC voltage, current inputs: 0.0 to 1000.0%
Available when EV2 option (if “/020: Heating/Cooling control output” is selectedin [Event output EV2 allocation]) is ordered, or when DS, DA or EV3D

option isordered.

c_b// ///3

OUT2 proportional cycle
Setting range: 0.5, 1 to 120 seconds
Available when EV2 option (if “/020:Heating/Cooling control output” is selectedin [Event output EV2 allocation]) is ordered, or when DS, EV3(DR), EV3DS option
is ordered.

hysb/ //1.0

OUT2 ON/OFF hysteresis
Setting range: 0.1 to 1000.0 ( )DC voltage, current inputs: 1 to 10000 (The placement of the decimal
point follows the selection.)
Available when EV2 option (if “/020: Heating/Cooling control output” is selectedin [Event output EV2 allocation]) is ordered, or when DS, DA or EV3D

option isordered.

olhb/ /100

OUT2 high limit
Setting range: OUT2 low limit value to 100%
Direct current output type (DA, EV3DA options):
OUT2 low limit value to 105%
Available when EV2 option (if “/020: Heating/Cooling control output” is selectedin [Event output EV2 allocation]) is ordered, or when DS, DA or EV3D

option isordered.

ollb/ ///0

OUT2 low limit
Setting range: 0% to OUT2 high limit value
Direct current output type (DA, EV3DA options):-5% to OUT2 high limit value
Available when EV2 option (if “/020: Heating/Cooling control output” is selectedin [Event output EV2 allocation]) is ordered, or when DS, DA or EV3D

option isordered.

db/// //0.0

Overlap/Dead band
Setting range: -200.0 to 200.0 ( )DC voltage, current inputs: -2000 to 2000 (The placement of thedecimal point follows the selection.)
Available when EV2 option (if “/020: Heating/Cooling control output” is selectedin [Event output EV2 allocation]) is ordered, or when DS, DA or EV3D
ordered.

cont/ heatDirect/Reverse action
heat Reverse (Heating) action
cool Direct (Cooling) action- 146 -

option isCharacters,
Factory Default

h1/// //0.0h1// and CT1
current value arealternately

Setting Item, Setting Range
Heater burnout alarm 1 value
Setting range:
20 A: 0.0 to 20.0 A
100 A: 0.0 to 100.0 A
Available when C5W, EIW, W option is ordered, and OUT1 is relay contact output

indicated.

or non-contact voltage output type.

h2//

Heater burnout alarm 2 value
Setting range:
20 A: 0.0 to 20.0 A
100 A: 0.0 to 100.0 A/ //0.0h2// and CT2
current value arealternately
indicated.

lp_t/ ///0Available when C5W, EIW, W option is ordered, and OUT1 is relay contact output
or non-contact voltage output type.

Loop break alarm time
Setting range: 0 to 200 minutes
Available when /014 (Loop break alarm output) is selected in [Event output EV
allocation].

lp_h/ ///0Loop break alarm band
Setting range:
Thermocouple, RTD input without decimal point: 0 to 150 ( )Thermocouple, RTD input with decimal point: 0.0 to 150.0 ( )DC voltage, current inputs: 0 to 1500 (The placement of the decimal
point follows the selection.)
Available when /014 (Loop break alarm output) is selected in [Event output EV
allocation].

- 147 -

Data

13.5

Wait Parameter Setting Mode
Characters,
Factory Default

wait

1 ///0Setting Item, Setting Range
Wait value
Setting range: 0 to 20% of input span (*)(*) DC voltage, current inputs: 0 to 20% of scaling span (The placementof the decimal point follows the selection.)wact

1 ----

PTN/STEP
indicator 1 lights up.

wact

1 ----

PTN/STEP
indicator 2 lights up.

wact

1 ----

PTN/STEP
indicator 3 lights up.

wact

1 ----

PTN/STEP
indicator 4 lights up.

wact

1 ----

PTN/STEP
indicator 5 lights up.

wact

1 ----

PTN/STEP
indicator 6 lights up.

wact

1 ----

PTN/STEP
indicator 7 lights up.

wact

1 ----

PTN/STEP
indicator 8 lights up.

wact

1 ----

PTN/STEP
indicator 9 lights up.

Step 1 wait function Enabled/Disabled---- Disableduse/ Enabled
Not available if Wait value is set to 0 or 0.0.

Step 2 wait function Enabled/Disabled---- Disableduse/ Enabled
Not available if Wait value is set to 0 or 0.0.

Step 3 wait function Enabled/Disabled---- Disableduse/ Enabled
Not available if Wait value is set to 0 or 0.0.

Step 4 wait function Enabled/Disabled---- Disableduse/ Enabled
Not available if Wait value is set to 0 or 0.0.

Step 5 wait function Enabled/Disabled---- Disableduse/ Enabled
Not available if Wait value is set to 0 or 0.0.

Step 6 wait function Enabled/Disabled---- Disableduse/ Enabled
Not available if Wait value is set to 0 or 0.0.

Step 7 wait function Enabled/Disabled---- Disableduse/ Enabled
Not available if Wait value is set to 0 or 0.0.

Step 8 wait function Enabled/Disabled---- Disableduse/ Enabled
Not available if Wait value is set to 0 or 0.0.

Step 9 wait function Enabled/Disabled---- Disableduse/ Enabled
Not available if Wait value is set to 0 or 0.0.

- 148 -

Data

Characters,
Factory Defaultwact

1 ----

PTN/STEP
indicator 10 lights
up.

Setting Item, Setting Range
Step 10 wait function Enabled/Disabled---- Disableduse/ Enabled
Not available if Wait value is set to 0 or 0.0.

- 149 -

Data

13.6

Engineering Setting Mode 1
Characters,
Factory Default

lock

Setting Item, Setting Range
Set value lock/ ----

lose/ sv//

sok// 1.000so/// //0.0

filt/ //0.0

cmsl/ nomlData

Change via Keypad----

Unlockloc1

Lock 1

loc2

Lock 2

loc3

Lock 3

loc4

Lock 4

loc5

Lock 5All set values can bechanged.
Only ‘Set value lock’ canbe changed. Other setting
items cannot be changed.
Setting items selected in[Changeable in Set valuelock] can bechanged.
‘Set value lock’ can bechanged. Other setting
items cannot be changed.
All set values can bechanged.
Only ‘Set value lock’ canbe changed. Other setting
items cannot be changed.
Setting items selected in[Changeable in Set valuelock] can be changed.
‘Set value lock’ can bechanged. Other setting
items cannot be changed.

Changevia Software
Communication
All set values canbe changed.

Setting items –except Input type –can be changed
temporarily via
softwarecommunication.
However, if power isturned ON again, theset values revert tothe values before
Lock 3, 4 or 5 wasselected.

Changeable in Set value locksv// Step SV, Step time can be changed.
svev Step SV, Step time, EV alarm value can be changed.
Sensor correction coefficient
Setting range: -10.000 to 10.000
Sensor correction
Setting range: -1000.0 to 1000.0 ( )DC voltage, current inputs: –10000 to 10000 (The placement of thedecimal point follows the selection.)
PV filter time constantSetting range: 0.0 to 10.0 seconds
Communication protocol
noml Shinko protocol
svt/ SV digital transmission (Shinko protocol)
svtr SV digital reception (Shinko protocol)
moda Modbus ASCII mode
modr Modbus RTU mode
Available when C5W or C5 option is ordered.

- 150 -

Characters,
Factory Default

cmno/ ///0cmsp/ //96

Setting Item, Setting Range
Instrument number
Setting range: 0 to 95
Available when C5W or C5 option is ordered.

Communication speed//96 9600 bps/192 19200 bps/384 38400 bps
Available when C5W or C5 option is ordered.

cmft/ 7evnData bit/Parity
8non 8 bits/No parity
7non 7 bits/No parity
8evn 8 bits/Even
7evn 7 bits/Even
8odd 8 bits/Odd
7odd 7 bits/Odd
Available when C5W or C5 option is ordered.

cmst/ ///1

Stop bit
///1
///2

1 bit
2 bitsAvailable when C5W or C5 option is ordered.

cmdy/ //10sv_b/ ///0

Response delay time
Setting range: 0 to 1000 ms
Available when C5W or C5 option is ordered.

SVTC bias
Setting range: 20% of input span
DC voltage, current inputs: 20% of scaling span (The placement of
the decimal point follows the selection.)
Available when C5W, C5 option is ordered, or when svtr [SV digital reception(Shinko protocol)] is selected in [Communication protocol].

- 151 -

Data

13.7

Engineering Setting Mode 2
Characters,
Factory Default

sens/ k//Cstlh/ 1370Setting Item, Setting Range
Input typek//C K-200 to 1370

k//.C

K

-200.0 to 400.0

j//.C

J

-200 to 1000

r//C

R

0 to 1760

s//C

S

0 to 1760

b//C

B

0 to 1820

e//C

E-200 to 800

t//.C

T

-200.0 to 400.0

n//C

N

-200 to 1300

pl2C

PL-

0 to 1390

c//C

C(W/Re5-26)

0 to 2315

pt/.C

Pt100

-200.0 to 850.0

jpt.C

JPt100-200.0 to 500.0

pt/C

Pt100

-200 to 850

jptC

JPt100-200 to 500

k//f K-328 to 2498
k//.f K
-328.0 to 752.0
j//f J-328 to 1832r//f R
32 to 3200
s//f S
32 to 3200
b//f B
32 to 3308
e//f E-328 to 1472
t//.f T
-328.0 to 752.0
n//f N-328 to 2372
pl2f PL32 to 2534
c//f C(W/Re5-26) 32 to 4199
pt/.f Pt100-328.0 to 1562.0
jpt.f JPt100-328.0 to 932.0
pt/f Pt100-328 to 1562
jptf JPt100-328 to 932
420a 4 to 20 mA-2000 to 10000
020a 0 to 20 mA-2000 to 10000
0/1v 0 to 1 V-2000 to 10000
0/5v 0 to 5 V-2000 to 10000
1/5v 1 to 5 V-2000 to 10000
010v 0 to 10 V
-2000 to 10000
Scaling high limit
Setting range: Scaling low limit to Input range high limit
DC voltage, current inputs: -2000 to 10000 (The placement of thedecimal point follows the selection.)- 152 -

Data

Characters,
Factory Default

stll/ -200dp/// ///0Setting Item, Setting Range
Scaling low limit
Setting range: Input range low limit to Scaling high limit
DC voltage, current inputs: -2000 to 10000 (The placement of thedecimal point follows the selection.)
Decimal point place///0 No decimal point//0.0 1 digit after decimal point/0.00 2 digits after decimal point
0.000 3 digits after decimal point
Available when DC voltage or current input is selected in [Input type].

evo1/ /000

Event output EV1 allocation/000 No event/001 Alarm output, High limit alarm/002 Alarm output, Low limit alarm/003 Alarm output, High/Low limits alarm/004 Alarm output, High/Low limits independent alarm/005 Alarm output, High/Low limit range alarm/006 Alarm output, High/Low limit range independent alarm
/007
/008
/009
/010
/011
/012
/013
/014
/015
/016
/017
/018
/019

Alarm output, Process high alarm
Alarm output, Process low alarm
Alarm output, High limit with standby alarm
Alarm output, Low limit with standby alarm
Alarm output, High/Low limits with standby alarm
Alarm output, High/Low limits with standby independent
alarm
Heater burnout alarm output (When C5W, EIW or W option
is ordered)
Loop break alarm output
Time signal output
Output during AT
Pattern end output
Output by communication command
RUN output

When /001 (High limit alarm) to /012 (High/Low limit with standby
independent alarm) or /015 (Time signal output) is selected, one output can be

set to one event output.
When /013 (Heater burnout alarm output), /014 (Loop break alarm), /016

(Output during AT) to /019 (RUN output) are selected, each output is common tomultiple event outputs.

a1za/ no//

EV1 alarm value 0 Enabled/Disabled
no// Disabled
yes/ Enabled
Available when any alarm from /0 01 (High limit alarm) to /012 (High/Low limits
with standby independent alarm) is selected in [Event output EV1 allocation] excluding /007 (Process high alarm) and /008 (Process low alarm].

- 153 -

Data

Characters,
Factory Default

a1hy/ //1.0

Setting Item, Setting Range
EV1 alarm hysteresis
Setting range: 0.1 to 1000.0 ( )DC voltage, current inputs: 1 to 10000 (The placement of thedecimal point follows the selection.)
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits
with standby independent alarm) is selected in [Event output EV1 allocation].

a1dy/ ///0EV1 alarm delay time
Setting range: 0 to 10000 seconds
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits
with standby independent alarm) is selected in [Event output EV1 allocation].

a1lm/ nomlEV1 alarm Energized/De-energizednoml Energized
revs De-energized
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits
with standby independent alarm) is selected in [Event output EV1 allocation].

evo2/ /000

Event output EV2 allocation/000 No event/001 Alarm output, High limit alarm/002 Alarm output, Low limit alarm/003 Alarm output, High/Low limits alarm/004 Alarm output, High/Low limits independent alarm/005 Alarm output, High/Low limit range alarm/006 Alarm output, High/Low limit range independent alarm
/007
/008
/009
/010
/011
/012
/013
/014
/015
/016
/017
/018
/019
/020

Alarm output, Process high alarm
Alarm output, Process low alarm
Alarm output, High limit with standby alarm
Alarm output, Low limit with standby alarm
Alarm output, High/Low limits with standby alarm
Alarm output, High/Low limits with standby independent
alarm
Heater burnout alarm output (When C5W, EIW or W option
is ordered)
Loop break alarm output
Time signal output
Output during AT
Pattern end output
Output by communication command
RUN output
Heating/Cooling control output

When /001 (High limit alarm) to /012 (High/Low limit with standby

independent alarm) or /015 (Time signal output) is selected, one output can be
set to one event output.
When /013 (Heater burnout alarm output), /014 (Loop break alarm), /016
(Output during AT) to /019 (RUN output) are selected, each output is common tomultiple event outputs.
Available when the EV2 or EV3(DR) option is ordered.

- 154 -

Data

Characters,
Factory Default

a2za/ no//

Setting Item, Setting Range
EV2 alarm value 0 Enabled/Disabled
no// Disabled
yes/ Enabled
Available when any alarm from /0 01 (High limit alarm) to /012 (High/Low limits
with standby independent alarm) is selected in [Event output EV2 allocation] excluding /007 (Process high alarm) and /008 (Process low alarm].

a2hy/ //1.0

EV2 alarm hysteresis
Setting range: 0.1 to 1000.0 ( ),DC voltage, current inputs: 1 to 10000 (The placement of thedecimal point follows the selection.)
Available when any alarm from /001 (High limit alarm) to /012 (High/Low
limits with standby independent alarm) is selected in [Event output EV2 allocation].

a2dy/ ///0a2lm/ noml

EV2 alarm delay time
Setting range: 0 to 10000 seconds
Available when any alarm from /001 (High limit alarm) to /012 (High/Low
limits with standby independent alarm) is selected in [Event output EV2 allocation].

EV2 alarm Energized/De-energizednoml Energized
revs De-energized
Available when any alarm from /001 (High limit alarm) to /012 (High/Low
limits with standby independent alarm) is selected in [Event output EV2 allocation].

evo3/ /000

Event output EV3 allocation/000 No event/001 Alarm output, High limit alarm/002 Alarm output, Low limit alarm/003 Alarm output, High/Low limits alarm/004 Alarm output, High/Low limits independent alarm/005 Alarm output, High/Low limit range alarm/006 Alarm output, High/Low limit range independent alarm
/007
/008
/009
/010
/011
/012
/013
/014
/015
/016
/017
/018
/019

Alarm output, Process high alarm
Alarm output, Process low alarm
Alarm output, High limit with standby alarm
Alarm output, Low limit with standby alarm
Alarm output, High/Low limits with standby alarm
Alarm output, High/Low limits with standby independent
alarm
Heater burnout alarm output (When C5W, EIW or W option
is ordered)
Loop break alarm output
Time signal output
Output during AT
Pattern end output
Output by communication command
RUN output

When /001 (High limit alarm) to /012 (High/Low limit with standby
independent alarm) or /015 (Time signal output) is selected, one output can be set
to one event output.
When /013 (Heater burnout alarm output), /014 (Loop break alarm), /016
(Output during AT) to /019 (RUN output) are selected, each output is common tomultiple event outputs. Available when the EV3D or EI option is ordered.

- 155 -

Data

Characters,
Factory Default

a3za/ no//

Setting Item, Setting Range

Data

EV3 alarm value 0 Enabled/Disabled
no// Disabled
yes/ Enabled
Available when any alarm from /0 01 (High limit alarm) to /012 (High/Low limits
with standby independent alarm) is selected in [Event output EV3 allocation] excluding /007 (Process high alarm) and /008 (Process low alarm].

a3hy/ //1.0

EV3 alarm hysteresis
Setting range: 0.1 to 1000.0 ( ),DC voltage, current inputs: 1 to 10000 (The placement of thedecimal point follows the selection.)
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits
with standby independent alarm) is selected in [Event output EV3 allocation].

a3dy/ ///0EV3 alarm delay time
Setting range: 0 to 10000 seconds
Available when any alarm from /001 (High limit alarm) to /012 (High/Low
limits with standby independent alarm) is selected in [Event output EV3 allocation].

a3lm/ nomlEV3 alarm Energized/De-energizednoml Energized
revs De-energized
Available when any alarm from /001 (High limit alarm) to /012 (High/Low limits
with standby independent alarm) is selected in [Event output EV3 allocation].

evi1

Event input DI1 allocation
Event Input Function/ /000
/000
/001
/002
/003
/004
/005

No event
Pattern number selection
Direct/Reverse action
Program control
RUN/STOP
Program control
Holding/Not holding
Program control
Advance function

Input ON
(Closed)Input OFF
(Open)

Direct action
RUN

Reverse action
STOP

Holding

Not holding

Advancefunction

Usual control

Available when C5W, EIW, EIT, C5 or EI option is ordered.

- 156 -

Characters,
Factory Default

evi2

Setting Item, Setting Range
Event input DI2 allocation
Event Input Function/ /000
/000
/001
/002
/003
/004
/005

No event
Pattern number selection
Direct/Reverse action
Program control RUN/STOP
Program control
Holding/Not holding
Program control Advancefunction

Data

Input ON
(Closed)Input OFF
(Open)

Direct action
RUN
Holding

Reverse action
STOP
Not holding

Advancefunction

Usual control

Available when C5W, EIW, EIT, C5 or EI option is ordered.

tros

Transmission output type
pv// PV transmission
sv// SV transmission
mv// MV transmission

trlh

Transmission output high limit
Setting range:
PV, SV transmission: Transmission output low limit to Input range high limit
Direct current, voltage inputs: -2000 to 10000(The placement of the decimal point follows theselection.)MV transmission: Transmission output low limit to 105.0%/ pv//

Available when EIT option is ordered.

/ 1370Available when EIT option is ordered.

trll/ -200Transmission output low limit
Setting range:
PV, SV transmission: Input range low limit to Transmission output high limit
Direct current, voltage inputs: -2000 to 10000(The placement of the decimal point follows the selection.)MV transmission: -5.0% to Transmission output high limit
Available when EIT option is ordered.

m_s// min/

pret/ stop

Step time unit
min/ Hours : Minutes
sec/ Minutes : Seconds
Power restore action
stop Stops after power is restored.
After power is restored, stops current program control, andreturns to the program control STOP (in Standby).
cont Continues (resumes) after power is restored.
Continues (resumes) previous program control after power
is restored.
hold Suspends after power is restored.
After power is restored, suspends (on hold) current program
control, and performs Fixed value control using the step SV
at the time of suspension.
Pressing the RUN key cancels suspension, and Program
control resumes.

- 157 -

Characters,
Factory Default

s_sv/ ///0s_sl/ pv//

petm/ ///0at_b/ //20Setting Item, Setting Range

Data

Step SV when program control starts
Setting range: Scaling low limit to Scaling high limit (The placement of
the decimal point follows the selection.)
Program control start type
pv// PV start:
Only when Program control starts, the step SV and steptime are advanced to the PV, then Program control starts.
pvr/ PVR start:
When Program control starts and in pattern repeating, thestep SV and step time are advanced to the PV, thenProgram control starts.
sv// SV start:
When Program control starts, the Program control starts
from the step SV set in [Step SV when program control
starts].
Pattern end output time
Setting range: 0 to 10000 seconds
AT biasSetting range:
Thermocouple, RTD inputs without decimal point: 0 to 50 (0 to 100 )Thermocouple, RTD inputs with decimal point: 0.0 to 50.0 (0.0 to 100.0 )Available when Thermocouple or RTD input is selected in [Input type].

eout/ off/

Output status when input errors occur
off/ Output OFF
on// Output ON
Available for direct current and voltage inputs, and direct current output.

time/ 00:00

edif/ no//

Indication time
Setting range: 00:00 to 60:00 (Minutes : Seconds)
When set to 00:00, Displays remain ON.
Error indication
no// Disabled
yes/ Enabled

13.8 Data Clear
Characters,
Factory Default

clr// no//

Setting Item, Setting Range
Data clear Yes/No
no// Data clear No
yes/ Data clear Yes- 158 -

Data

14. Making Program Pattern Table and Data Table
Before setting program, make a program pattern table and data table.
14.1

Making Program Pattern Table
Please make a copy of the program pattern table (p.161), and follow the procedure below.
(1) Write a step SV, step time, PID block number, Wait function Enabled/Disabled foreach step from Step 1 in numerical order.
(Even if the same block number is used, write it for every step.)(2) Draw a line graph of step SV.
Program Pattern Table
Pattern 1
Step number

1

2

3

500
1:00
2
Disabled

1000
0:40
3
Enabled

4

5

1000

500

0
Step SV
500
Step time
0:30
PID block number
2
Wait function Enabled/Disabled Enabled

1000
0
1:00
2:00
3
2
Disabled Disabled(Fig. 14.1-1)
Explanation of Program Pattern Table
Program pattern table consists of Y axis which represents the step SV ( ,represents the step time (Hours : Minutes, Minutes : Seconds).
Step SV is considered to be the SV at the end of the step.
Step time is considered to be the step process time.

), and X axis which• The relation between the step SV and step time can be explained as follows.
Step 1: The control is performed so that the temperature reaches from 0 to 500 for 30 minutes.
Depending on the selection in [Program control start type], control is performed as follows.
• When SV start is selected: Performs control from the step SV set in [Step SV when
program control starts] so that the temperature reaches 500 .
• When PV start or PVR start is selected: Step SV and time are advanced to PV, andcontrol starts so that the temperature reaches 500 .
Step 2: The control is performed so that SV is maintained at 500 for 1 hour.
Step 3: The control is performed so that SV rises from 500 to 1000 for 40 minutes.
Step 4: The control is performed so that SV is maintained at 1000 for 1 hour.
Step 5: The control is performed so that SV drops from 1000 to 0 for 2 hours.
- 159 -

• PID block includes: OUT1 proportional band, Integral time, Derivative time, ARW, OUT2 proportionalband
10 types of PID block (1 – 10) can be set.
• Wait function Enabled/Disabled can be selected for each step.
14.2

Making Data Table
Please make a copy of Data Table (p.162), and follow the procedure below.
(1) Write data for block numbers in Control parameter setting mode, by referring to the PID blocknumbers in the Program pattern table.
(2) For Wait value and other setting items, write the data in the table if required.
About PID block settings
If program pattern is not set for a step, its PID block number becomes 1 (factory default). We highly
recommend that you leave the factory default values of PID block 1 as they are, and set the values
from PID block 2.
• Example of PID block setting
PID Block
OUT1
numberP-band
1
10
2
30
3
50

Integraltime
200 sec
240 sec
340 sec

Derivativetime
50 sec60 sec85 sec• Example of Wait value setting
Wait value
10
Wait value is common to all steps for each pattern.
• Example of other setting items
Setting items
OUT1 proportional cycle
OUT2 proportional cycle
Number of repetitions
Pattern link
Communication protocol
Instrument number
Communication speed
Data bit/Parity
Stop bit
Response delay timeData
15 seconds
15 seconds
1
Pattern link Disabled
Shinko protocol
1
38400 bps
7 bits/Even
1 bit
10 ms

- 160 -

ARW
50%
35%
40%

OUT2
P-band101010Program Pattern Table
Please make a copy of this table for use.
Pattern number
Step number

1

2

3

4

Step SV
Step time
PID block number
Wait function Enabled/Disabled- 161 -

5

6

7

8

9

10

Data Table
Please make a copy of this table for use.
• PID block
PID Blocknumber
1
2
3
4
5
6
7
8
9
10

OUT1
P-bandIntegral
time
sec
sec
sec
sec
sec
sec
sec
sec
sec
sec

Derivative
time
sec
sec
sec
sec
sec
sec
sec
sec
sec
sec

• Wait value
Wait value
Wait value is common to all steps for each pattern.
• Other setting data (Please use the blank for your own usage.)
Setting item
Data
OUT1 proportional cycle
sec
OUT2 proportional cyclesecNumber of repetitions
times
Pattern link
Communication protocol
Instrument number
bps
Communication speed
Data bit/Parity
Stop bitms
Response delay time

- 162 -

OUT2
P-band

ARW
%
%
%
%
%
%
%
%
%
%

15. Key Operation Flowchart- 163 -

***** Inquiries *****For any inquiries about this unit, please contact our agency or thevendor where you purchased the unit after checking the following.
[Example]• Model ------------------------------ PCB1R00-52• Option ----------------------------- EV3(DR), C5W(100A)• Serial number ------------------- No. 173F05000
In addition to the above, please let us know the details of themalfunction, or discrepancy, and the operating conditions.

SHINKO TECHNOS CO., LTD.
OVERSEAS DIVISION

Head Office : 2-5-1, Senbahigashi, Minoo, Osaka, Japan
http://www.shinko-technos.co.jp/e/
URL:
Tel : +81-72-727-6100
E-mail:overseas@shinko-technos.co.jp
Fax: +81-72-727-7006
No. PCB12E5 2020.11