This may not be the latest edition.

AD2-I20-A046

Large Vibration Test Facility

Advanced Engineering Services Co., Ltd.

This may not be the latest edition.

本文書は、AD2-I20-A006「総合環境試験棟ユーザーズマニュアル（第 3 分冊）大型振動試験設備編」初版を英訳したものであり、最新版であることは保証されていません。
英訳版を用いての設備利用検討に当たっては、以下の連絡先にお問い合わせの上 、
最新情報をご確認ください。
tfcd_rikatsu@aes.co.jp
This document was translated from first edition of AD2-I20-A006 “Large Vibration Test
Facility Users’ Manual”, which may not be the latest edition. Please contact thefollowing address for the confirmation of the latest edition or if you have any inquiry
concerning the contents of the English edition.
tfcd_rikatsu@aes.co.jp

This may not be the latest edition.

Table of Contents
Introduction ...................................................................................................................................1
Brief Overview of this Facility .....................................................................................................1
2.1
System Outline ......................................................................................................................1
2.2
Main Specifications ..............................................................................................................7
2.2.1
Shaking System .............................................................................................................7
2.2.2
Control System..............................................................................................................92.2.3
Data Acquisition and Processing System ....................................................................10
3 User I/F .......................................................................................................................................13
3.1
Layout in Test Room ...........................................................................................................13
3.2
Layout in Measurement and Control Room ........................................................................13
3.3
Device I/Fs ..........................................................................................................................13
4 Execution of Tests .......................................................................................................................27
4.1
Test-related Procedure.........................................................................................................27
4.2
Test Procedure .....................................................................................................................28
4.3
Requisition of Test Conditions ............................................................................................29
4.4
Special Notes ......................................................................................................................29
Appendix A Test Conditions Requisition Sheet (to be submitted at K/O) ................................... A-1
Appendix B Test Conditions Requisition Sheet (to be submitted at test) ...................................... B-1
Appendix C Data Acquisition/Analysis Conditions Sheet ............................................................ C-1
Appendix D Data Acquisition Database (Instruction and Example) ............................................ D-1
1
2

List of Figures
Figure 2-1 Bird’s Eye View on Large Vibration Test Facility ...............................................................5
Figure 2-2 System Diagram ..................................................................................................................6
Figure 2-3 Maximum Acceleration (Horizontal Vibration Table) .......................................................12
Figure 2-4 Maximum Acceleration (Vertical Vibration Table) ...........................................................12
Figure 3-1 Layout Drawing of Test Room ..........................................................................................15
Figure 3-2 Layout Drawing of Measurement and Control Room .......................................................16
Figure 3-3 Hole Pattern on Vibration Table (Horizontal Vibration Table) ..........................................17
Figure 3-4 Hole Pattern on Vibration Table (Vertical Vibration Table) ..............................................18
Figure 3-5 Hole Pattern on Vibration Table (Screw Hole Conversion Ring for Vertical Vibration Table)....................................................................................................................................................19
Figure 3-6 Extracted Diagram of M12 Hole Pattern on Horizontal/Vertical Vibration Tables ...........20
Figure 3-7 Hole Pattern on Vibration Table (Screw Hole Conversion Ring for Horizontal Vibration
Table) ..........................................................................................................................................21
Figure 3-8 Diagram of Stopper on Screw Hole Conversion Ring for Horizontal Vibration Table .....22
Figure 3-9 Assembly Drawing of Stopper on Screw Hole Conversion Ring for Horizontal Vibration
Table............................................................................................................................................23
Figure 3-10 Configuration of Distribution Boards and Sockets (Vibration Test Room).....................25
Figure 3-11 Configuration of Distribution Boards and Sockets (Measurement and Control Room) ..26
Figure 4-1 Flow of Database Creation ...............................................................................................29
Figure 4-2 Test-related Work Flow .....................................................................................................32
Figure 4-3 Test Flow ...........................................................................................................................33
Figure 4-4 Work Floor ........................................................................................................................34
List of Tables
Table 2-1 Acceleration/Strain/Facility Signals Measurement Accuracy and Number of Measurement
Points ..........................................................................................................................................10
Table 3-1 Specifications of Test Room Crane.....................................................................................14
Table 3-2 List of Distribution Boards for Tests...................................................................................24
Table 4-1 Tightening Torque and Reference of Respective Bolt ........................................................30
Table 4-2 Constituent Parts of Stopper ...............................................................................................31iThis may not be the latest edition.

1

Introduction
This users’ manual is to provide necessary information to the users of Large Vibration Test

Facility (referred to as “this facility” hereafter) located in Spacecraft Integration and Test Building.
This facility is used for simulating the vibration environment on spacecraft imposed by a launchvehicle during launch or during flight, for the purposes of verifying the structural strength of a test
specimen (■abbreviated as TS hereafter) or the durability of mounted equipment, as well as
understanding their vibration characteristics.

2

Brief Overview of this Facility
This facility is used for simulating the vibration environment on a launch vehicle and aspacecraft imposed during launch, for the purposes of understanding its durability and vibration
characteristics. The facility consists of a shaking system, a control system, a facility base system,
utility equipment, a data acquisition system, and a communication system for operation. The shaking
system has horizontal and vertical vibration tables.
The horizontal and vertical vibration tables respectively possess one and four electrodynamic
shakers, and are designed for assuring the excitation force, precision-improved excitation ability,
higher reliability, etc., required of a facility designated for spacecraft tests.
The measuring control room on the second floor enables remote controlling of the systems
including sine/random wave vibration controlling of the vibration tables, which can be partiallyautomatic.

2.1 System Outline
This facility consists of the following systems (1) ~ (6.) Its bird’s eye view and system diagram
are shown in Figures 2-1 and 2-2, respectively.
(1) Shaking system
The shaking system is the drive source of this facility, consisting of electrodynamic
shakers, vibration tables, horizontal/vertical device power supplies, an air pressure supply, an
oil supply device, and a cooling device.
Activation of those devices, selection of excitation axes, and detection of abnormalities
are all conducted at a “facility controller.”(a) Electrodynamic shakers
There are five of them, one of which is for the horizontal vibration table, and four are
for the vertical vibration table.
The electrodynamic shakers generate force from the current flowing through theconductors in the DC magnetic field.

1This may not be the latest edition.

(b) Horizontal/vertical vibration tables
A TS is mounted on them. They are both 3m×3m in size, and made of aluminumalloy.
(c) Horizontal/vertical device power supplies
These devices supply EP necessary for the armatures, exciting coils, anddemagnetizing coils of the electrodynamic shakers. They also have a back-up function incase of power failure.
(d) Air pressure supply
This device supplies air to the neutral support air springs of the electrodynamic
shakers and the vertical vibration table.
(e) Oil supply device
This device supplies oil to the static pressure bearing on the lower part of thehorizontal vibration table, the center bearing and joint of the vertical vibration table, andthe static pressure bearings of the electrodynamic shakers.
(f) Cooling device
This device supplies a necessary amount of cooling water to the armatures andexciting coils of the electrodynamic shakers, and to the oil supply device.
(2) Control system
The control system controls the electrodynamic shakers the way the excitation levels of
the vibration tables form the specified excitation spectrum distribution, while remotely
controlling and monitoring this facility. It consists of a shaking controller and a facility
controller.
(a) Shaking controller
The shaking controller performs safe operation of various excitation controllingnecessary for spacecraft tests, by transmitting control command signals to the shaking
system, while receiving the feedback signals from a TS and the vibration tables to control
excitation spectrums, sweeps, notches, abort, etc., during a vibration test.
It adopts a mean control method, that is, the vibration amplitudes of the shakers arecontrolled by bringing the average of the vibration responses among all the controlling
points to the target value.
This device enables the controlling of sine/random wave vibration test levels, and thelimit controlling of the significant measurement points on a TS.
(b) Facility controller
The facility controller performs remote centralized operation of this facility, puts
various statuses on screens, monitors and records the ongoing states of this facility during
a test, in the measuring control room, to confirm the maintenance of normality with this2This may not be the latest edition.

facility to protect it from damage.
(3) Facility base system
The facility base system supports the reaction force from the shakers, to prevent the
propagation of harmful vibration to the surrounding facilities including the building itself.
The vibration propagation level on the floor 30m away from the center of a vibration tablein the building is 0.008 m/s2（0.0008G）or less.
(a) Isolated base
The isolated base supports the loads from the vibration tables, shakers, and a TS, aswell as the excitation force from the shakers, then transmits the loads to the supportingbase after damping the excitation force using its own mass and resilient isolators.
(b) Supporting base
The supporting base supports the static/dynamic loads from the shaking systemfacilities, isolated base, etc., and evenly spreads the loads.
(c) Work floor
There is a work floor to fill the gap between the supporting base and the isolated base,which has enough endurance for handling satellites and executing test-related work. The
load capacities of the work floors are distinguished by the identification tapes which show
the load sections according to the range of heavy loads. Refer to section 4.4 for details.
(4) Utility equipment(a) ITV facility
The operation statuses of a TS, the test room, and the power amplifier room can bemonitored in the measuring control room.
① The monitor cameras can be remotely controlled in the measuring control room.
② The test room has two color monitor cameras installed.
③ The monitored situations can be recorded in a DVD recorder (with built-in HDD.)④ The ITV facility is connected to the “Test Facilities Administration Room” on thethird floor in SITE via LAN.
(b) Display board
A display board is located in the test room to help workers get hold of the test statuses.
① It shows test statuses (STAND-BY, PRE-LEVEL, FULL-LEVEL)② It shows excitation frequencies (only for sine wave vibration)③ It shows excitation duration (only for random wave vibration)(5) Data acquisition system
The data acquisition system measures, analyzes, and saves the vibration response data of3

This may not be the latest edition.

a TS. The system is basically structured as below.
(a) Analogue signal processing section
In this section, sensor outputs (400 chs for acceleration, 100 chs for strain) are
amplified by the isolation amplifier dedicated to the section.
(b) Digital signal processing section
In this section, sensor output signals are measured by the data acquisition computer
as digital data, which is then analyzed and saved by the data analysis computer.
Furthermore, limit controlling on several significant measurement points in
random/sine wave vibration can be executed at this section by choosing channels (up to
50 chs) on the patch panel that are to be branched into the vibration controller.
(c) Data medium PC
The analysis data converted into universal files by the data analysis computer can beread out by the data medium PC, and saved in FD, CD-R, etc.
(6) Communication system for operation
This system consists of a wired paging system and a wireless radio communication device(paging) which help the mutual communication between test-concerned personnel and thecommand broadcasting during the operation of the facility, the preparatory work on a TS
before a test, etc. The usage purposes of each communication system are shown below.
(a) Wireless radio communication device① Group call
The individual call enables the radio communication for summons andconversations between a command station and a paging, or between pagings.
Up to nine pagings are available, provided one of them is borrowed from the
1600m3 Acoustic Test Facility. Please note that three are occupied by the facility
operation company during a test and therefore the remaining six are available tousers.
Also, up to three groups of independent calls are possible.
② Out-of-range warning
Mobile terminals give alarm when one moves out of the service area (whereradio wave is out of reach) while talking.
(b) Wired communication device① Extension call
One can choose any call number on the telephone to communicate.

4This may not be the latest edition.

2F Control Room

Horizontal Dynamic Shaker

1F Power Amplifier RoomFoundation

Suspended Seismic Block
Vertical Table

Horizontal Table
Table
Horizontal

Vertical Dynamic Shaker

Oil Supply Device for Horizontal Table

Figure 2-1 Bird’s Eye View on Large Vibration Test Facility

5This may not be the latest edition.

oil supply
deviceair：water ：oil ：signal：EP：

cooling device(secondary)communication system for
operation

Shaking System
cooling device(primary)horizontal device
power supplyTShorizontal
shakerhorizontal
oscillation table

ITV facility

display board
TS
vertical device
power supply

verticaloscillation tablevertical shaker

screw hole adapter ring

Utility Facilities

isolated baseair pressure
supplysupporting base

Facility Base System
Control Systemfacility
controller

analogue signal processing section

control signal

shaking
controller

excitation
controller

digital signal processing section

data acquisition computer
data analysis computer
limit control signal
data medium PC

Data Acquisition and Processing System

Figure 2-2 System Diagram

6

This may not be the latest edition.

2.2 Main Specifications
2.2.1 Shaking System
The specifications of the shaking system in this facility are shown below.
(1) Excitation systemelectrodynamic uni-axial type shaker(2) Vibration direction

uni-axial excitation to horizontal or vertical axis(3) Maximum load mass

8,000 kg

(4) Allowable overturning moment

horizontal vibration: 980 kN･m (100 tonf･m)
Note) Ask us for more detail, because theallowable levels differ depending on the mounted
areas of jigs.
vertical vibration: 156.8 kN･m (16 tonf･m)(5) Allowable eccentric moment

horizontal vibration: 98 kN･m (10 tonf･m)(moment around the vertical axis)
vertical vibration: 78.4 kN･m (8 tonf･m)(6) Dimensions of vibration tables

3m×3m☐(7) Height of vibration tables

about 30 cm from the upper planes of the tables
to the floor of the vibration test room (when thetables are in neutral positions.)(8) Cleanliness of test room

ISO class 8 (class 100,000)(9) Excitation waveform

sine wave (Up/Down sweep, Up-Down sweep),
random wave

(10) Excitation abilitysine wave: horizontal 9.8 m/s2 (1G)
(when 8,000 kg is loaded)vertical 15.6 m/s2 (1.6G)(when 8,000 kg is loaded)random wave: 4.9 m/s2 rms (0.5 Grms) forhorizontal/vertical (when 8,000 kg is loaded)

7

This may not be the latest edition.

(11) Maximum acceleration

The maximum accelerations of the shaker with andwithout the load of 8,000 kg are shown in Figures
2-3 and 2-4.
F

α＝

×k
M1＋M2

α = maximum acceleration (m/s2)
F = excitation ability
horizontal: 245,000 N (25 tonf)
vertical: 784,000 N (80 tonf)
M1 = mass of movable parthorizontal: 2,872 kg
vertical: 11,000 kg
M2 = mass of TS (kg)k = operational factor
horizontal: 0.8
vertical: 0.7
Note) Please make arrangements with thepersonnel in charge at the Test Facilities
Administration Room concerning the Max.
acceleration for a TS with large mass.
(12) Maximum velocity

40 cm/s(13) Maximum displacement±12.7 mm(14) Minimum control levelsine wave: 0.49 m/s2 (0.05G)(5 ~ 100Hz) (unloaded)random wave: 0.98 m/s2 rms (0.1 G rms)
(5 ~ 200Hz)
0.49 m/s2 (0.05G) or less(15) Noise level(16) Acceleration distribution on vibration tables within ±15% (unloaded)(17) Acceleration waveform strain

within 10% (unloaded)(18) Transverse motion

within 15% (unloaded, 5 ~ 100Hz)(crosstalk motion)

8

This may not be the latest edition.

2.2.2 Control System
The specifications of the control system in this facility are shown below.
(1) Sine wave(a) Frequency range

5 ~ 100Hz(b) Number of input channels

control channel: within 4 chs
facility (drive, rotation moment): 5 chs
limit channel (branching from data acquisition
device): within 50 chs(c) Control method

One of maximum level, minimum level, averagelevel, or RMS is to be chosen.

(d) Level calculation method

One of RMS, peak level, or tracking filter is to bechosen for both controlling and data acquisition.

(e) Sweep method

linear sweep, logarithmic sweep(f) Measurement channel

frequency spectrum, transfer function(g) Target level setting

fixed displacement/velocity/acceleration, or
acceleration-acceleration (slope) can be pre-set (upto 100 breakpoints)(h) Limit setting

fixed displacement/velocity/acceleration, or
acceleration-acceleration (slope) can be pre-set (upto 50 breakpoints)(i)

Data output

target spectrum, upper/lower limit alarm,
upper/lower limit abort, transfer function, control
average, the frequency/drive/error spectrums ofeach control channel and measurement channel(j)Protective function

control alarm/abort, limit abort, detection of open
channels, abort by external signals, manual abort,channel overload(2) Random wave(a) Frequency range

5 ~ 200Hz(b) Number of input channels

control channel: within 4chs
facility (drive, rotation moment): 5chs
limit channel (branching from data acquisition
device): within 50 chs(c) Frequency resolution

100, 200, 400, 800, 1600, 3200 lines(d) Control method

One of maximum level, minimum level, or
average level is to be chosen.

9This may not be the latest edition.

(e) Output waveformtrue random wave(f) Measurement channel

frequency spectrum, transfer function(g) Target level setting

fixed displacement/velocity/acceleration, or
acceleration-acceleration (slope) can be pre-set (upto 100 breakpoints)(h) Limit setting

fixed displacement/velocity/acceleration, or
acceleration-acceleration (slope) can be pre-set (upto 40 breakpoints)(i)

Data output

target spectrum, upper/lower limit alarm,
upper/lower limit abort, transfer function, control
average, the frequency/drive/error spectrums ofeach control channel and measurement channel(j)Protective function

control alarm/abort, limit abort, detection of open
channels, abort by external signals, manual abort,channel overload

2.2.3 Data Acquisition and Processing System(1) Measurement accuracy / number of measurement points
The measurement accuracy and the number of measurement points for each kind of
signals are shown in Table 2-1.
Table 2-1 Acceleration/Strain/Facility Signals Measurement Accuracy and Number ofMeasurement Points
total measurement
name of data

accuracy±（％F.S）

the number ofmeasurement points

acceleration

3.4

400

strain2.2

100

facility
signals

3.4

charge amplifier: Model 428(manufactured by Endevco)
strain amplifier: Model 436(manufactured by Endevco)

6

control signals

6

COLA signals

10This may not be the latest edition.

(2) Contents of data analysis
The following analyses and functions are possible.
(a) Waveform display(b) PSD analysis(c) Auto power spectrum analysis(d) Response curve (sine wave) analysis(e) FFT analysis(f) Transfer function analysis(g) Coherence analysis(h) Cross-spectrum density analysis(i)

Autocorrelation function analysis(j)Histogram analysis(k) Crosscorrelation function analysis(l)Mode analysis (modal analysis and animation display)(3) Time for post-excitation quick look processing and analysis processing
The up/down sweep for sine wave vibration modes (response curve analysis, transfer
function analysis) of all the measurement points (500 chs) can be output in about three hours.
(4) Consecutive data acquisition time
Recording of data for up to fifteen minutes is possible when using 500 chs per one test.
(5) Sampling ratesine wave: 12.8 kHz (5 kHz × 2.56 times)
random wave: 1.28 kHz (250Hz × 5.12 times)(6) Low-path filter
A low-path filter of 400Hz is applied at the analogue signal processing section.
(7) Power failure protective measures
The system can stay in the energized state for eight minutes after power failure takes place,owing to an uninterruptible power supply (CVCF.) Power failure is coped with during that
period.

11

This may not be the latest edition.

unloadedMax. acceleration 68.8 m/s2 peak (7G peak)100

Acceleration (m/s2)

Max. velocity
40 cm/s peak
w/ load of 8000kg
Max. acceleration 9.8 m/s2 peak (1G peak)

10

1
1

10

Frequency (Hz)

100

1000

Figure 2-3 Maximum Acceleration (Horizontal Vibration Table)
100

unloadedMax. acceleration 49 m/s2 peak (5G peak)Acceleration (m/s2)(m/s2)

Max. velocity
40 cm/s peak

w/ load of 8000kg
Max. acceleration 15.6 m/s2 peak (1.6G peak)

rated
displacement
25.4 mmp-p

10

1
1

10

Frequency (Hz)100

Figure 2-4 Maximum Acceleration (Vertical Vibration Table)

12

1000

This may not be the latest edition.

3

User I/F

3.1 Layout in Test RoomThe layout drawing of the test room is shown in Figure 3-1.

3.2 Layout in Measurement and Control RoomThe layout drawing of the measurement and control room is shown in Figure 3-2.

3.3 Device I/Fs
(1) Hole patterns of screw hole conversion rings and on vibration tables
The hole patterns of screw hole conversion rings and on the vibration tables are shown in
Figure 3-3 ~ 3-7.
If a test jig for an I/F is necessary between a vibration table and a TS, it is to be preparedby users. In case users intend to mount a PAF on a vibration table, please contact us in advance,
because that may require a “screw hole conversion ring” in between.
(2) Data acquisition system(a) Acceleration measurement
The accelerometers mounted on a TS are to be connected to the relay section of thedata acquisition device, so called the “patch panel”, in the test room, via low-noise cables.
(b) Strain measurement
The strain gauges mounted on a TS are to be connected to the bridge box terminal in
the test room. The specifications of the bridge box are shown below.
① Model number

DB-120S3-8(Kyowa Electronic Instruments Co., Ltd)

② Input strain gauge

1-gauge method120Ω

2-gauge method120Ω (active dummy method

60 ~ 1,000Ω)
4-gauge method*

60 ~ 1,000Ω

The input method is chosen by switching the slide switch.

③ Connection terminal

gauge-clamp type terminal (viz. a wire rod isinserted while a control lever is being pushed, andfixed by letting the lever go.)(3) Test room crane13This may not be the latest edition.

The specifications of the test room crane are shown in Table 3-1.
Table 3-1 Specifications of Test Room Crane
capacity model#

10,000(kg)

velocity (low/high)travel traverse hoist

height below hook

hook size
A: 115 (mm)

X-Y

1/10

1/10

0.5/5

16 (m)

B: 90 (mm)C: 63 (mm)(4) Test room shutter
When a TS is carried in and out of the test room, the shutter facing the satellite path is tobe left open.
dimensions of shutter: 8.3m (width) × 14m (height)(5) Items related to power supplies
The distribution boards for tests available to users are listed in Table 3-2, while theinstallation sites of distribution boards and sockets available to users are shown in Figures 310 and 3-11.

14

This may not be the latest edition.

UP

excitation power amplifier room

⑥
2.0

0.7
2.0

1.0

⑨

⑦

⑦
①

③

2.6

2.5

7.3

1.0

⑦

2.5

⑧

②

2.5
0.8

⑦
1.0

④
power room (1)unit (m)satellite path
19.6

Figure 3-1 Layout Drawing of Test Room

15

name

①

④

vertical oscillation tablehorizontal oscillation tabledata acquisition and processing
device relay section
shutter

⑤

crane

⑥

air shower⑦

air conditioner inlet⑧

distribution board (PA-1-D)⑨

distribution board (PA-1-E）②⑤

20.0 (outdoor)

No.

③

This may not be the latest edition.

No.
番号名name 称
phase controller①① 位相制御装置

⑫

⑮
⑪

⑮
⑩

①

－１３－

②③ ④

⑤

⑥

⑦

⑧

facility controller④④ 設備制御装置
shaking controller⑤⑤ 加振制御装置⑭

signalアanalog
ナログ
信 号processing
処理部計
section computer
算機
data acquisition computer⑦⑦ デジタル計測用計算機
data analysis computer⑧⑧ デジタル解析用計算機
patch panel⑨⑨ パッチパネル
digital signal processing section⑩⑩ デジタル信号処理部
network printer⑪⑪ ネットワークプリンタ⑫
data medium PC
PC⑫ データ受渡用

uninterruptible power supply⑬⑬ 無停電電源装置
distribution board⑭⑭ 分電盤⑮

Figure 3-2 Layout Drawing of Measurement and Control Room

16

D

⑥⑥

⑬

⑨

⑦

設network
備 制 御 printer
装置用ネットfor facility controller
ワークプリンタ②② network printer
加振制御装置用ネット
for shaking controller
ワークプリンタITV
device③③ ITV装置

air conditioner

This may not be the latest edition.

attachment holes on table upper plane and their quantity

position of holes

attachment holes
depth

toward shaker

depth

depth

screw hole for mounting static pressure bearing

Figure 3-3 Hole Pattern on Vibration Table (Horizontal Vibration Table)

17

qty

This may not be the latest edition.

Holes here (4 × 4 places=16 holes)
are not made.
1 hole here is not made.

attachment holes on table upper plane and their quantity
position of holes

size of attachment holes
sy mbolqty*

sy mbol*sy mbol*sy mbol*sy mbol** = depth

Figure 3-4 Hole Pattern on Vibration Table (Vertical Vibration Table)

18This may not be the latest edition.

depth of screw 13
except for places indicated by ☆ and ※depth of screw 19 at places indicated by ☆

tapping toward circumferential direction,
repeating the pattern shown in this range(cf. details of part A)
bolt M12 with hexagon socket(suspending eyebolt)
at places indicated by ※details of part A

Figure 3-5 Hole Pattern on Vibration Table (Screw Hole Conversion Ring for Vertical Vibration Table)

19This may not be the latest edition.

hole position of M12

qty

others(note) where □200-pitch holes and either
PCD 2030 or PCD 2350 holes overlap witheach other, the holes of PCD 2030 and
PCD 2350 are preferentially made.

Figure 3-6 Extracted Diagram of M12 Hole Pattern on Horizontal/Vertical Vibration Tables

20

This may not be the latest edition.

depth(positional deviation between tap holes: 0.6)

Figure 3-7 Hole Pattern on Vibration Table (Screw Hole Conversion Ring for Horizontal Vibration Table)

21

This may not be the latest edition.

6mm-φ and 5mm-deep drilled hole(a hole to show the front side)

conversion ring planeNote) This stopper is adoptable as an antiskid device for PAF1666MA or the equivalent size of PAF during horizontal excitation. Refer to “4.4 Special
Notes (11)” in section 4.4 for how to mount the stopper on a screw hole conversion ring designed for the horizontal vibration table.
Figure 3-8 Diagram of Stopper on Screw Hole Conversion Ring for Horizontal Vibration Table

22

This may not be the latest edition.

(a hole to show the front side)PAF
gap-checking section
stopperhole conversion ring

Figure 3-9 Assembly Drawing of Stopper on Screw Hole Conversion Ring for Horizontal Vibration Table

23

This may not be the latest edition.
Table 3-2 List of Distribution Boards for Tests
namePA-1-D

installation site

vibration test room

specifications of breakerNo.

the number of phases ×voltagerating1

3φ × 210V

MCB3P 50／50 AT

2

1φ × 210V

MCB2P 100／75 AT

3

1φ × 210V

MCB2P 50／50 AT

4

1φ × 100V

MCB2P 50／50 AT

capacity (kVA)
12
10.4
12.5
8.5
8
4
3
3

1φ × 100V

5MCB2P 50／30 AT

2
1

1φ × 100V

6

MCB2P 50／20 AT

1.5
1type of earth wire

sign of breaker*

notes

F □
G □
I
□
H
□
B □
E
□
C □
D
□
A
□
F
○
D ○
G ○
R
○
H
○
I ○
J
○
K ○
L
○
O ○
P
○
E ○
M ○
N
○

type C

name

PA-1-E

installation site

vibration test room

specifications of breakerNo.

the number of phases ×voltagerating1

3φ × 210V

MCB3P 50／50 AT

2

1φ × 100V

MCB2P 50／50 AT

3

1φ × 115V

MCB2P 50／20 AT

capacity (kVA)3type of earth wire

sign of breaker*

notes

5
□
7
□
C ○
D
○

type C

name

PA-2-C

installation site

control room

specifications of breakerNo.
1the number of phases ×voltage
1φ × 115V

2

1φ × 100V

ratingcapacity (kVA)

MCB2P 50／20 AT
MCB2P 50／50 AT
MCB2P 50／20 AT
type of earth wire

1.5

sign of breaker*
C ○
D
○
7
○
I ○
J ○
8
○

type C* sign of breaker
It refers to the signs of the breakers set on distribution boards. The breakers with the same symbol are
distinguished by colors or capital/small letters, which are symbolized as follows in the table above.
○………………… black, capital letter○ ……………… black, small letter□………………… orange, capital letter
24

notes

This may not be the latest edition.

power amplifier room

distribution boardUPAS
air conditioner inlet

2.0

0.7

1.0

2.0 2.0

2.6

30AE 2E 30AE 2E
PA-1-E

2E
2.5

9.5

sockets

1.0

2E
2.5

2E
20.0 (outdoor)

horizontal
oscillation
table

2E
30AE

4.0

assembly preparation room (1)

30AE

2E
30AE

2E
30AE
2E

9.0

2.5
2E 30AE 2E 30AE

0.8

1.0
8.5

power room (1)unit (m)30AE

AC, 1φ, 115V×2, 15A

verticaloscillationtable

PA-1-DAC, 3φ, 200V, 30A

7.3

satellite path
19.6

Figure 3-10 Configuration of Distribution Boards and Sockets (Vibration Test Room)25

AC, 1φ, 100V, 30A
30AE

AC, 1φ, 100V×2, 15A
2E

This may not be the latest edition.

corridor
5.8

6.6

0.8
1.8

1.8

2E 20AE2E

2.0

2E 20AE2E

2E 20AE 2E

0.9
2.0

2E 20AE 2E

air conditioner

3.2

air conditioner

4.0 4.2
5.8
6.85

corridorair conditioner control board
4.05

PA-2-C

2E 20AE 2E

2E

20AE

2E 20AE 2E

2E

0.6

2E 20AE 2E
1.2

1.2

0.65
6.0

6.9
19.6

Each socket is connected to the distribution board PA-2-C.
unit: mAC, 1φ, 115V × 2, 15A
2E

AC, 1φ, 100V × 2, 15A

AC, 1φ, 100V, 20A
20AE

2E

Figure 3-11 Configuration of Distribution Boards and Sockets (Measurement and Control Room)

26

distribution board

This may not be the latest edition.

4

Execution of Tests

4.1 Test-related Procedure
The flow of test-related work procedure is shown in Figure 4-2. Refer to “4.4 Special Notes” for the executionof tests.
(1) Kickoff meeting
A kickoff meeting is held so that the staff of Advanced Engineering Services Co., Ltd. (called AES
hereafter) and users can together confirm test purposes and what are installed in this facility to see if theirperformances can satisfy users’ purposes.
Users are to prepare a “test implementation plan”, a “test conditions requisition sheet (to be submitted
at K/O)”, etc.
(2) Task briefing (pre-test meeting)A task briefing is held for the final checking on test purposes and the status of facilities, etc., in
preparation for performing a test. Its main purpose is to discuss the changes made after the kickoff meeting.
(3) Rental of acceleration sensors, etc.
Users can rent acceleration sensors and low-noise cables to be used for tests from AES, wheneverpossible. In that case, make arrangements in advance and clarify your request in a test implementation plan,etc.
(4) Installation of TS
Pay enough attention to the withstand load of the work floor, etc. (cf. 4.4 “Work Floor”), during the
installation of a TS into the facility.
(5) Excitation of jig
Upon users’ request, the staff of AES checks the safety of the vibration property of the test jig
manufactured by users, before a test is performed on a TS. In that case, the jig is excited following the sameprocedures as in the actual test on the TS.
(6) Mounting of TS
When mounting a TS onto a vibration table, pay full attention not to damage the dust-proof coversurrounding the table.
(7) Connection of measurement sensor
The measurement sensor mounted on a TS is connected to the patch panel in the vibration test room.
In addition, the connection is checked for its normality on the data acquisition computer in the control roomon the 2nd floor.
(8) Vibration test
A TS is actually excited. Refer to section 4.2 for more details.
(9) Task review (post-test meeting)
The final evaluation on the achievements of test purposes is performed at the end of the test. Users are
to prepare a “newsboard” or the like which indicates the test results of a TS.
(10) Dismounting of TS
A TS is dismounted from the vibration table after the post-test meeting. When doing so, pay enoughattention not to damage the dust-proof cover surrounding the table.
(11) Removal of TS and cleaning of test room27

This may not be the latest edition.

When carrying a TS out of the test room, pay close attention to the withstand load of the work floor,
etc. Also, users are to clean the test room or other areas used during the test after the removal of a TS.
(12) Saving of test data
The data acquired during a test is recorded in DVD and kept by AES.

4.2 Test Procedure
The test procedure for vibration tests using this facility is shown in Figure 4-3, and each work in the operation
sequence is explained below.
(1) Setting of test parameters
Each parameter for the controller is set.
(2) Activation of power supplies for horizontal/vertical devices
After moving a vibration table from the waiting position to the neutral position, the power supplies forthe horizontal/vertical devices are activated.
(3) Loop checking
Low-level excitation is loaded in the tested excitation frequency band for random wave vibration or at
an arbitrarily-chosen frequency for sine wave vibration to confirm that noise measurement by the control
system and the control system itself have a closed loop. Neither data acquisition nor limit control can be
performed during loop checking.
(4) Start of pretest
Excitation starts to be applied at lower levels than for the actual test. The excitation levels for a pretest
can be arbitrarily chosen as long as they are higher than the minimum control level.
(5) Checking of signals from data acquisition system
The measurement signals of a TS are checked on the data acquisition computer in the control room on
the 2nd floor.
(6) Start of data acquisition and full test
The data acquisition computer starts acquiring data. Following that, a full test is started.
(7) End of test/data acquisition
The application of excitation ends when the pre-set test is completed. Then, the data acquisition
computer stops acquiring data.
(8) Cutoff of power supplies for horizontal/vertical devices
The power supplies for the horizontal/vertical devices are cut off. Then, the vibration table is moved
from the neutral position back to the waiting position.
(9) Data analysis
The acquired data is analyzed. The analysis designation is to be informed to us in the “dataacquisition/analysis conditions sheet” in Appendix C.

28This may not be the latest edition.

4.3 Requisition of Test Conditions
Users are to submit conditions requisition sheets as follows so that a vibration test can be smoothly performed
without errors. A “test conditions requisition sheet” and an “data acquisition/analysis conditions sheet” aredistributed to users before the execution of a test.
(1) Data acquisition databaseIn the data processing facility, the conditions required for data acquisition and analysis (viz. sensitivityof measurement sensors, etc.) are compiled into a database, which therefore is to be created and readybefore starting a test. The flow of producing a database is shown in Figure 4-1.

choose measurement points → procure/rent sensors → create a database list

submit the database list* → set the database → check the database*submission of database list
Figure 4-1 Flow of Database Creation
The format and input example of the database list are shown in Appendix D “data acquisition database”.
(2) Test conditions requisition sheet
A “test conditions requisition sheet” in Appendices A, B is to be filled in with vibration test level
conditions and submitted.
(3) Data acquisition/analysis conditions sheet
A “data acquisition/analysis conditions sheet” in Appendix C is to be filled in with the conditions fordata acquisition during a test and analysis for measurement points, and submitted.

4.4 Special Notes
Especially important matters to take into account for performing a vibration test in this facility are shown
below.
(1) Work floor
The work floor has three load-restricted areas. The division of the areas is shown in Figure 4-4.
The rubber tires of a lifting dolly, etc., can be scorched into the work floor, and therefore require
protective measures for the floor, e.g., laying a board beneath them. Furthermore, the rubber slab laid
between the building floor and the foundation of a shaker is not completely flat. Users are therefore to pay
attention to its uneven surface when moving a dolly, etc., across it, or not to leave an object there for a longtime.
(2) Flatness/surface roughness of jig
The I/F plane of a jig to the vibration table is to be manufactured the way it has a flatness of within 0.1
mm/m and a surface roughness of 12.5S(▽▽) or less.

(3) Mounting on vibration table(a) Application of crane29This may not be the latest edition.

The crane (10t) of this facility is to be operated by personnel who have a crane operator’s license.
(b) Attachment bolt
When mounting a jig, etc., on a vibration table, bolts made of metal other than stainless steel (hightensile bolts are recommended) are to be used, and the tightening torque is to be based on the levels
shown in Table 4-1. Also, users are to be careful not to leave scratches, etc., on the vibration tablesurface, so as to keep its flatness.
Table 4-1 Tightening Torque and Reference of Respective Bolt
adopted bolt tightening torquereferencefor M1268.65 N･m

700 kgf･cm

for 1/4 UNF

10.3 N･m

105 kgf･cm

for 3/8 UNF

37.27 N･m

380 kgf･cm(4) Mounting operations of acceleration sensors
When mounting acceleration sensors on a vibration table, put masking tape (kapton, etc.) on the table,
glue aluminum blocks, and use insulated studs.
(5) Heat run
The heat run time necessary for the system is about 30 minutes after the activation of power. That timeis to be included when planning a test schedule.
(6) Length of low-noise measurement cables
A low-noise cable is to be 10m or longer, because the charge amplifier for data acquisition is fixed at aplace about 10m away from the center of the vibration table.
Also, a cable is to be long enough so that a TS can be turned 90°when applying horizontal vibration,or moved onto a vertical vibration table when applying vertical vibration.
(7) Wearing helmet
The workers and observers in the test room are to wear a helmet and safety shoes (to be prepared byusers) during crane operations and a test.
(8) Cleanliness control
The cleanliness in the test room is controlled to keep ISO class 8 (class 100,000.) Therefore, users are
to wear a clean garment (to be prepared by users) when entering the room.
(9) Facility's response in protective function operation
A normal shutdown function (which takes about 0.3 seconds before shutdown) is adopted in theprotective function operation, for the sake of protecting a TS.
(10) Cautions during excitation
During excitation, one is to stay clear of the excitation direction. At the same time, the test room shutters
are to be left open by 2m or more, for the purpose of securing an evacuation passage.

(11) Procedure of fixing a stopper onto the screw hole conversion ring for horizontal vibration table(a) Clean the contact plane of PAF and the mounting plane of a stopper with IPA, after checking that they30

This may not be the latest edition.

have no burrs, scratches, or foreign substances.
(b) Provisionally fasten M12 bolts (with washers) on the stopper the way it fits the hole pattern on thescrew hole conversion ring, while pushing it against PAF. (cf. Figures 3-7~3-9.)(c) Tap the side of the stopper using a plastic hammer, etc., to push it against PAF, and fasten the bolts.
The tightening torque for M 12 bolts is to be 49 N･m (500 kgf･cm.)(d) Make sure that the minimum gap between PAF and each stopper is 0.0 mm.
(e) Up to 32 stoppers can be set. The components of the stoppers are shown in Table 4-2.
Table 4-2 Constituent Parts of Stopper
item

qty

material

mass

stopper32

SUS（303）

1.61 kg／piece

M12 bolt64

SCM (chrome molybdenum steel)

30.9g／piece

M12 washer

64

SUS

－

(12) A sine wave vibration test at the constant frequency can be manually conducted. In that case, however,excitation duration may not be precise due to manual operation; therefore, if requirement calls for highly
accurate excitation duration, its feasibility is to be checked in advance.

31

This may not be the latest edition.

preparatory work
① kickoff meeting② task briefing③ renting of acceleration
sensors, etc.

changing of axes

installation of TS

excitation of jig

mounting of acceleration
sensors

actual excitation

excitation of jig

task review

post-test work
①removal of TS②cleaning

actual excitation

Figure 4-2 Test-related Work Flow

32

This may not be the latest edition.

power activation

setting of parameters

start of full test
start of data acquisition

startup of facility(activation of amplifier)end of full test
end of data acquisition

inner loop checking

shut-down of facility(stoppage of amplifier)start of pretest

data analysis

signal checking

power shutdown

Figure 4-3 Test Flow

33

This may not be the latest edition.

excitation
power amplifier room
振動パワーアンプ室
UP

F

注 3)
*3

注
*1 1）

*2 2）
注

－２６－

20.0

衛星通路
satellite
path

power room (1)単位(ｍ)unit (m)19.6

Figure 4-4 Work Floor

34

注1) 耐荷重 20000kg（輪荷重：5000kg）の範囲：の枠内*1 range for withstand load 20,000 kg (wheel load: 5,000 kg):
作業床に黄色テープで識別あり
indicated with yellow tapes on the work floor
注2)3700kg（分布荷重）及び荷重925kg（輪荷重）*2 range 耐荷重
for withstandload 3,700 kg (distributedload) and loadの範囲：の枠内
925 kg(wheel load):*3 rangefor withstandload 300 kg (distributed
注3) 耐荷重300kg（分布荷重）：の枠内load):Note) withstand load 190 kg/cm2 for otherareas
注4) それ以外は耐荷重 190kg/cm2(衛星通路と同様)(same as on the satellite path)ＡAppendix A Test Conditions Requisition Sheet(to be submitted at K/O)
Appendix A Test Conditions Requisition Sheet (to be submitted at K/O)

This may not be the latest edition.

Test Conditions Requisition Sheet (to be submitted at K/O)

COMMON
name of testnotes

name of test item
number of control chs

chup to 4 chs

number of limit chs

chup to 50 chs

number ofmeasurement chs
oscillation direction(Check either verticalor horizontal.)

acceleration:ch/strain:axis X□vertical□horizontal

axis Y□vertical□horizontal

axis Z□vertical□horizontal

humidity: 45±15%cleanliness: ISO CLASS 8(CLASS 100,000)

cleanliness:test item masskg

jig masskg

position of CG

X=

mm

Y=

mm

Z=

mm

Maximum load mass is to be determined basedon the specifications of the vibration table.
CG position is to be of a test item and a jig
combined (from the center on the upper plane ofthe vibration table.)

kg/m2

inertia moment
RANDOMapplication of PAF

acceleration: max. 400 chs, strain: max 100 chs【air conditioning conditions in test room
(reference)】
temperature: 23±3℃

temperature:environmental
requirements for test
humidity:
item in clean room

oscillation waveform
and analysis condition

ch

□PSD
□autopower spectrum□transfar function/coherence□acceleration response
SINE（□UP/□ DOWN） □transfer function□applied・□not applied

A-2

Check the targeted analysis.

This may not be the latest edition.

SINE
setting of control parameters

notes

upper limit
oscillation
frequencyHzlower limit
oscillation
frequencyHzoscillation-starting
frequencyHzfrequency range: 5 ~ 100Hz

setting of sweepstarting direction(Check either oneof them.)□Upsweep mode
(Check one ofthem.)□Linear

□Down

□Log

□Integersetting for # of oscillation cycles
ex. "2" for Up-Down sequence

times

number of sweeps

Oct/min ・ Hz/sec

sweep rate

1 ~ 4 Oct/min

setting of control levels
frequency Hz

segment type□displacement□rate□acceleration□Log-Line□displacement□rate□acceleration□Log-Line□displacement□rate□acceleration□Log-Line□displacement□rate□acceleration□Log-Line□displacement□rate□acceleration□Log-Line□displacement□rate□acceleration□Log-Line□displacement□rate□acceleration□Log-Line□displacement□rate□acceleration□Log-Line□displacement□rate□acceleration□Log-Linelev el＊lower limit alarm upper limit alarm lower limit abortlevel: dBlevel: dBlevel: dB

upper limit abortlevel: dB

-

+

-

+

-

+

-

+

-

+

-

+

-

+

-

+

-

+

-

+

-

+

-

+

-

+

-

+

-

+

-

+

-

+

-

+

* unit of levels: displacement: mmp-p, velocity: m/s, acceleration: m/s² (with G)

A-3

This may not be the latest edition.

RANDOMsetting of control parameters

notes

upper limit oscillation frequencyHzfrequency range: 5～200Hz

lower limit oscillation frequency

Hz：test time200

frequency line：

hh : mm : ssothers ()

setting of control levels
m/s2 rms (overall RMS
level

upper limit
alarm leveldB

lower limit
alarm leveldB

upper limit
abort leveldB

lower limit
abort level
dB

2

+

-

+

-

2

+

-

+

-

2

+

-

+

-

2

+

-

+

-

2

+

-

+

-

+

-

+

-

+

-

+

-

2

+

-

+

-

2

+

-

+

-

+

-

+

-

2 2

frequency Hz(m/s ) /Hz
2(G /Hz)(G /Hz)(

G /Hz)(

G /Hz)(

G /Hz)(

G /Hz)(

G2/Hz)(

G2/Hz)(

G /Hz)(

G /Hz)(

G2/Hz)

left inclination
dB/octright
inclination
dB/octGrms)

A-4

Appendix B Test Conditions Requisition Sheet(to be submitted at test)
Appendix B Test Conditions Requisition Sheet (to be submitted at test)

This may not be the latest edition.

Excitation Conditions Requisition Sheet (1)SINE

final check
TS

OP

TS Name
Test Name
File NameCONTROL PARAMETERS
SweepsControl Spectrum
Test Level□Avg ・ □Min ・ □Max ・ □RMS－

Level Increment
Sweep ModedB
dB□Linear ・ □Log ・ □Integer□oct/min ・ □Hz/sec

Sweep RateSWEEP/COMPRESSION TABLE
segment

frequency

compression

1

Hz

％

2

Hz

％

3

Hz

％

4

Hz

％

5

Hz

％

REFERENCE TABLE
REFERENCE PARAMETERS□Up ・ □Down

Sweep-starting Direction
Minimum Frequency

Hz

Maximum Frequency

Hz

Frequency Points

1,000

B-2

This may not be the latest edition.

Excitation Conditions Requisition Sheet (2)

(1/

)

SINE
EXCITATION PATTERN DIAGRAM (reference)

REFERENCE TABLE
segment#

frequency

segment type-alarm(dB)value *

+alarm(dB)

1

Hz□Disp･□Vel･□Acc･□LogLine

-

dB

+

dB

2

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

3

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

4

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

5

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

6

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

7

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

8

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

9

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

10

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

11

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

12

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

13

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

B-3

-abort
(dB)
dB
dB
dB
dB
dB
dB
dB
dB
dB
dB
dB
dB
dB

+abort
(dB)
+

dB

+

dB

+

dB

+

dB

+

dB

+

dB

+

dB

+

dB

+

dB

+

dB

+

dB

+

dB

+

dB

This may not be the latest edition.
14

Hz□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

15

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

16

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

17

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

18

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

19

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

20

Hz

□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine

-

dB

+

dB

*unit of levels: displacement：mmp-p, velocity：m/s, acceleration：m/s²

B-4

dB
dB
dB
dB
dB
dB
dB

+

dB

+

dB

+

dB

+

dB

+

dB

+

dB

+

dB

This may not be the latest edition.

Excitation Conditions Requisition Sheet (2)

(2/2)

SINE

REFERENCE TABLE
segment#

frequency

21

Hz

22

Hz

23

Hz

24

Hz

25

Hz

26

Hz

27

Hz

28

Hz

29

Hz

30

Hz

31

Hz

32

Hz

33

Hz

34

Hz

35

Hz

36

Hz

37

Hz

38

Hz

39

Hz

40

Hz

41

Hz

42

Hz

43

Hz

44

Hz

45

Hz

46

Hz

47

Hz

48

Hz

49

Hz

50

Hz

segment type□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine□ Disp ･ □ Vel ･ □ Acc ･ □ LogLine-alarm(dB)value *

+alarm(dB)-abort(dB)+abort
(dB)

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

-

dB

+

dB

*unit of levels: displacement：mmp-p, velocity：m/s, acceleration：m/s²
B-5

This may not be the latest edition.

Excitation Conditions Requisition Sheet (3)

(1/ )

SINE

LIMIT PROFILE TABLE
PROFILE TABLE 1 (for facility rotation moment)No.
frequency
type
1
100 Hz □Disp･□Vel･☑Acc･□Log-Line2
Hz □Disp･□Vel･□Acc･□Log-Line
3
Hz □Disp･□Vel･□Acc･□Log-Line
4
Hz □Disp･□Vel･□Acc･□Log-Line
5
Hz □Disp･□Vel･□Acc･□Log-Line
Minimum Frequency
Hz
Maximum Frequency
Hz
Abort Level
3
dB

PROFILE TABLE 2
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

PROFILE TABLE 3
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

frequency
Hz
Hz
Hz
Hz
Hz

frequency
Hz
Hz
Hz
Hz
Hz

value
43

type
□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line
Hz
Hz
dB

value

type
□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line
Hz
Hz
dB

value

PROFILE TABLE 4
No.
frequency
type
1
Hz □Disp･□Vel･□Acc･□Log-Line2
Hz □Disp･□Vel･□Acc･□Log-Line
3
Hz □Disp･□Vel･□Acc･□Log-Line
4
Hz □Disp･□Vel･□Acc･□Log-Line
5
Hz □Disp･□Vel･□Acc･□Log-Line
Minimum Frequency
Hz
Maximum Frequency
Hz
Abort Level
dB
Note) Only one abort level can be set for the entire profile.

B-6

value

This may not be the latest edition.

Excitation Conditions Requisition Sheet (3)

(2/

SINE

LIMIT PROFILE TABLE
PROFILE TABLE 5
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

PROFILE TABLE 6
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

PROFILE TABLE 7
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

frequency
Hz
Hz
Hz
Hz
Hz

frequency
Hz
Hz
Hz
Hz
Hz

frequency
Hz
Hz
Hz
Hz
Hz

type
□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line
Hz
Hz
dB

value

type
□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line
Hz
Hz
dB

value

type
□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line
Hz
Hz
dB

value

PROFILE TABLE 8
No.
frequency
type
1
Hz □Disp･□Vel･□Acc･□Log-Line2
Hz □Disp･□Vel･□Acc･□Log-Line
3
Hz □Disp･□Vel･□Acc･□Log-Line
4
Hz □Disp･□Vel･□Acc･□Log-Line
5
Hz □Disp･□Vel･□Acc･□Log-Line
Minimum Frequency
Hz
Maximum Frequency
Hz
Abort Level
dB
Note) Only one abort level can be set per the entire profile.

B-7

value

)

This may not be the latest edition.

Excitation Conditions Requisition Sheet (3)

(3/

SINE

LIMIT PROFILE TABLE
PROFILE TABLE 9
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

PROFILE TABLE 10
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

PROFILE TABLE 11
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

frequency
Hz
Hz
Hz
Hz
Hz

frequency
Hz
Hz
Hz
Hz
Hz

frequency
Hz
Hz
Hz
Hz
Hz

type
□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line
Hz
Hz
dB

value

type
□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line
Hz
Hz
dB

value

type
□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line
Hz
Hz
dB

value

PROFILE TABLE 12No.
frequency
type
1
Hz □Disp･□Vel･□Acc･□Log-Line2
Hz □Disp･□Vel･□Acc･□Log-Line
3
Hz □Disp･□Vel･□Acc･□Log-Line
4
Hz □Disp･□Vel･□Acc･□Log-Line
5
Hz □Disp･□Vel･□Acc･□Log-Line
Minimum Frequency
Hz
Maximum Frequency
Hz
Abort Level
dB
Note) Only one abort level can be set per the entire profile.

B-8

value

)

This may not be the latest edition.

Excitation Conditions Requisition Sheet (3)

(

SINE

LIMIT PROFILE TABLE
PROFILE TABLE
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

PROFILE TABLE
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

PROFILE TABLE
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

frequency
Hz
Hz
Hz
Hz
Hz

frequency
Hz
Hz
Hz
Hz
Hz

frequency
Hz
Hz
Hz
Hz
Hz

type
□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line
Hz
Hz
dB

value

type
□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line
Hz
Hz
dB

value

type
□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line□Disp･□Vel･□Acc･□Log-Line
Hz
Hz
dB

value

PROFILE TABLE
No.
frequency
type
1
Hz □Disp･□Vel･□Acc･□Log-Line2
Hz □Disp･□Vel･□Acc･□Log-Line
3
Hz □Disp･□Vel･□Acc･□Log-Line
4
Hz □Disp･□Vel･□Acc･□Log-Line
5
Hz □Disp･□Vel･□Acc･□Log-Line
Minimum Frequency
Hz
Maximum Frequency
Hz
Abort Level
dB
Note) Only one abort level can be set per the entire profile.

B-9

value

/

)

This may not be the latest edition.

Excitation Conditions Requisition Sheet (4)SINE

SAFETY PARAMETERS
ALARM/ABORTS
Minimum Frequency

Hz

Maximum Frequency

Hz

Reference CSL ThresholddB

CSL Count Threshold

LOOP CHECKNoise Threshold

30

Frequency

mVrms
Hz

Maximum DrivemVrms

DRIVE SIGNAL
Maximum Drive

Vpeak

B-10

This may not be the latest edition.

Excitation Conditions Requisition Sheet (5)

(1/

)

SINE

CHANNEL TABLE
channelprofilesensitivity
label

processing mode#No

A/D No

type

1

－

CTL

mV/(m/s2)－□BB RMS･□Fundamental･□BB PEAK

2

－

CTL

mV/(m/s2)－□BB RMS･□Fundamental･□BB PEAK

3

－

CTL

mV/(m/s2)－□BB RMS･□Fundamental･□BB PEAK

4

－

CTL

mV/(m/s2)－□BB RMS･□Fundamental･□BB PEAK

5－

current1

AUX

4.1 mV/(m/s2)－☑BB RMS･□Fundamental･□BB PEAK

6－

current2

AUX2

4.1 mV/(m/s )－☑BB RMS･□Fundamental･□BB PEAK

7－

current3

AUX

4.1 mV/(m/s2)－☑BB RMS･□Fundamental･□BB PEAK

8－

current4

AUX

4.1 mV/(m/s2)－☑BB RMS･□Fundamental･□BB PEAK

9*－

moment□AUX・□LIMIT

100 mV/(m/s2)☑BB RMS･□Fundamental･□BB PEAK

10

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

11

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

12

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

13

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

14

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

15

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

16

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

17

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

18

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

19

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

20

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

21

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

22

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK23

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

24

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

25

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

26

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK27

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK28

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

29

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK30

□AUX・□LIMIT

mV/(m/s2)□BB RMS･□Fundamental･□BB PEAK

* LIMIT, Profile Number=1, for vertical excitation. AUX, for horizontal excitation.

B-11

This may not be the latest edition.

Excitation Conditions Requisition Sheet (5)

(2/2)

SINE

CHANNEL TABLE
channelsensitivity
No.

A/D No.

label

type
□AUX・□

33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50
51
52
53
54
55
56
57

#

processing mode
□BB RMS･□Fundamental･□BB

31
32

profilemV/(m/s2)

LIMIT□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・LIMIT
□ AUX ・
LIMIT

PEAK

□
□
□
□
□
□
□
□
□
□
□
□
□
□
□
□
□
□
□
□
□
□
□
□
□
□

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

B-12

This may not be the latest edition.
58
59□ AUX ・ □LIMIT
□ AUX ・ □LIMIT

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

mV/(m/s2)□ BB RMS ･ □ Fundamental ･ □ BB
PEAK

B-13

This may not be the latest edition.

Excitation Conditions Requisition Sheet (6)SINE
H(f) Table
H(f)pairresponsechannelreferencechannelH(f)pair

1

31

2

32

3

33

4

34

5

35

6

36

7

37

8

38

9

39

10

40

11

41

12

42

13

43

14

44

15

45

16

46

17

47

18

48

19

49

20

50

21

51

22

52

23

53

24

54

25

55

26

56

27

57

28

58

29

59

30
DOCUMENTATION
display text

B-14

responsechannelreferencechannelThis may not be the latest edition.
Example of Excitation Conditions Requisition Sheet - SINE (1/3)
No

item

explanation

1

TS Name

Fill in the space with the name of the TS.

2

Test Name

Fill in the space with the name of the test the way its content

range

can be understood.
3

File Name

Set the name of the parameter file.

within 24alphanumerics

CONTROLPARAMETERS
4

SweepsSet the number of excitation cycles.

1 or more

ex. Set "2" for sequential Up-Down sweep.
5

Control Spectrum

Choose an excitation control method. (Check one of thealternatives below.)
Avg: average control among control channels
Min: minimum level control among control channels
Max: maximum level control among control channels
RMS: square root control of RMS among control channels

6

Test Level

Set the pre-test level, at which control signals andmeasurement signals are checked.

7

Level Increment

It denotes the step-up levels to shift from the pre-test level tothe full-test level.

8

Sweep Mode

Choose an excitation sweep method. (Check one of thealternatives below.)
Linear: linear sweep
Log: logarithmic sweep
Integer: step sine

9

Sweep Rate

10 Sweep/Compression
Table

Set the sweep rate and choose the unit (Check either one.)The compression speed can be changed for each frequency Ｘ denotes theband.

frequency

5 ~ Ｘ Hz: 50%

following which

Ｘ ~ 100 Hz: 30% (recommended)

input level
becomesconstant; usuallyaround 20 Hz.
(Max. 200%)

REFERENCE
TABLE
11 Sweep Direction

Choose the sweep direction. (Check either one.)

12 Minimum Frequency

Set the lower-limit excitation frequency.

5 or higher

13 Maximum Frequency

Set the upper-limit excitation frequency.

100 or lower

B-15

This may not be the latest edition.
Example of Excitation Conditions Requisition Sheet - SINE (2/3)
No

item

explanation

14 Frequency Points

Set the number of display data points on the display.

15 Excitation Pattern

Draw the excitation (control) pattern diagram.

range
fixed at 1,000

Diagram (reference)
16 Frequency

Set the frequencies at breakpoints.

17 Segment TypeChoose the segment type. (Check one of the alternatives.)
Disp: fixed displacement (mmp-p)
Vel: fixed velocity (m/s)
Acc: fixed acceleration (m/s2)
Log-Line: slope acceleration (m/s2)

18 Value

Input levels using the unit chosen under the “segment type”
above.

19 －Alarm (dB)

Set the minus alarm level.

20 ＋Alarm (dB)

Set the plus alarm level.

21 －Abort (dB)

Set the minus abort level.

22 ＋Abort (dB)

Set the plus abort level.

PROFILE TABLE
23 Frequency

Set the frequencies at breakpoints.

24 TypeChoose the type. (Check one of the alternatives.)
Disp: fixed displacement (mmp-p)
Vel: fixed velocity (m/s)
Acc: fixed acceleration (m/s2)
Log-Line: slope acceleration (m/s2)

25 Minimum Frequency

Set the minimum frequency in the frequency band to which
limiting is applied.

26 Maximum Frequency

Set the maximum frequency in the frequency band to which
limiting is applied.

27 Abort Level

Set the abort level for the entire profile. (Individual setting ofabort level for each number is not possible.)

SAFETYPARAMETERS
28 Minimum Frequency

Set the minimum frequency in the frequency band to which “lower-limit
alarm and abort are applied.

excitation
frequency” isusually chosen.

29 Maximum Frequency

Set the maximum frequency in the frequency band to which “upper-limit
alarm and abort are applied.

excitation
frequency” isusually chosen.

B-16

This may not be the latest edition.
Example of Excitation Conditions Requisition Sheet -SINE (3/3)
No

explanation

item

30 Reference CSL
Threshold31 CSL Count Thresholdrange

Set the lower-limit control level in comparison to the reference
level, where abort is triggered due to signal loss.
Set the threshold count of successive CSL excess over the 1 ~ 254
control abort levels (upper/lower limits), where abort in usually, “1.”excitation is triggered.

32 Loop Check NoiseThresholdSet the allowable noise level for the phase before starting loop 1 ~ 1,000 mVrms
checking.
usually,“30mVrms.”

33 Frequency

Set the excitation frequency for loop checking.

34 Maximum Drive

Set the upper-limit excitation drive voltage for loop checking. 10 ~ 3,300

5 ~ 200 Hz
mVrms

35 Drive Signal
Maximum Drive

Set the upper-limit maximum drive voltage for full-level 0.01 ~ 10 Vpeak
excitation.

CHANNEL TABLE
36 Channel A/D No.

Fill in the space with the A/D No. of the measurement systemcharge amplifier.

37 Channel LabelSet the name of the channel label.

within 15alphanumerics

38 Channel TypeChoose the type of channels. (Check one of the alternatives
below.)
AUX: measurement channel
LIMIT: limit channel

39 Sensitivity

Set the charge amplifier calibration levels

10 ~ 10,000
mV/(m/s2)

40 Profile Number

Set the profile numbers of limit channels.

1 ~ 5041 Processing Mode

Choose how to calculate amplitude. (Check one of the“Fundamental” isalternatives below.)usually chosen for

BB

RMS: calculation based on RMS of all frequency controlling.
components up to 23 kHz

Fundamental: calculation based on the traveling band-passfilter applied
BB PEAK: calculation based on the peaks of drive signals
each time they are fed backH(f) Table“the number of acquisition channels － 1” is settable.

42 Response Channel

Set the response channel for transfer function analysis.

The channel # in

43 Reference Channel

Set the reference channel for transfer function analysis.

the CHANNEL

When “0” is chosen, average-based analysis can be performed. TABLE is to be
In that case, phase data is not available.
filled in thisblank.
DOCUMENTATION
44 Display Text

Set the title the way the content of excitation can be
B-17

within 64

This may not be the latest edition.
understood.

alphanumerics

The title is indicated (printed) with analysis data.

Excitation Conditions Requisition Sheet (1)RANDOM

final checkTS

TS Name
Test Name
File NameCONTROL PARAMETERS
Test Time (hhh:mm:ss):

Degrees of Freedom□240 ・ □other（:）□Avg / □Min / □Max

Control Spectrum
Start Level－

dB

Initial Test Level－

dB

Level IncrementdB

REFERENCE TABLE
REFERENCE PARAMETERS
Minimum Frequency

Hz

Maximum Frequency

Hz

Frequency Lines□240 ・ □other（）
m/s2 rms

Overall RMS

B-18

OP

This may not be the latest edition.

Excitation Conditions Requisition Sheet (2)RANDOM

EXCITATION PATTERN DIAGRAM (reference)

REFERENCE TABLE
breakpoint

frequency

value

slope

-alarm+alarm-abort+abort

(dB)

(dB)

(dB)

(dB)

1

Hz

(m/s2)2/Hz

dB/oct -

dB

+

dB

-

dB

+

dB

2

Hz

(m/s2)2/Hz

dB/oct -

dB

+

dB

-

dB

+

dB

3

Hz

(m/s2)2/Hz

dB/oct -

dB

+

dB

-

dB

+

dB

4

Hz

(m/s2)2/Hz

dB/oct -

dB

+

dB

-

dB

+

dB

5

Hz

(m/s2)2/Hz

dB/oct -

dB

+

dB

-

dB

+

dB

6

Hz

(m/s2)2/Hz

dB/oct -

dB

+

dB

-

dB

+

dB

7

Hz

(m/s2)2/Hz

dB/oct -

dB

+

dB

-

dB

+

dB

8

Hz

(m/s2)2/Hz

dB/oct -

dB

+

dB

-

dB

+

dB

9

Hz

(m/s2)2/Hz

dB/oct -

dB

+

dB

-

dB

+

dB

10

Hz

(m/s2)2/Hz

dB/oct -

dB

+

dB

-

dB

+

dB

B-19

This may not be the latest edition.

Excitation Conditions Requisition Sheet (3)(1/ )RANDOM

LIMIT PROFILE TABLE
PROFILE TABLE 1
break point
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

PROFILE TABLE 2
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

PROFILE TABLE 3
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

frequency

value

slope
(m/s2)2/Hz

Hz
Hz
Hz
Hz
Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

frequency

value

slope
(m/s2)2/Hz

Hz
Hz
Hz
Hz
Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

frequency

value

slope
(m/s2)2/Hz

Hz
Hz
Hz
Hz
Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

PROFILE TABLE 4
No.
frequency
value
1
Hz
2
Hz
3
Hz
4
Hz
5
Hz
Minimum Frequency
Maximum Frequency
Abort Level
Note) Only one abort level can be set per the entire profile.

B-20

slope
(m/s2)2/Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

This may not be the latest edition.

Excitation Conditions Requisition Sheet (3)(2/ )RANDOM

LIMIT PROFILE TABLE
PROFILE TABLE 5
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

PROFILE TABLE 6
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

PROFILE TABLE 7
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

frequency

value

slope
(m/s2)2/Hz

Hz
Hz
Hz
Hz
Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

frequency

value

slope
(m/s2)2/Hz

Hz
Hz
Hz
Hz
Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

frequency

value

slope
(m/s2)2/Hz

Hz
Hz
Hz
Hz
Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

PROFILE TABLE 8
No.
frequency
value
1
Hz
2
Hz
3
Hz
4
Hz
5
Hz
Minimum Frequency
Maximum Frequency
Abort Level
Note) Only one abort level can be set per the entire profile.

B-21

slope
(m/s2)2/Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

This may not be the latest edition.

Excitation Conditions Requisition Sheet (3)(3/)

RANDOM

LIMIT PROFILE TABLE
PROFILE TABLE 9
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

PROFILE TABLE 10
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

PROFILE TABLE 11
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

frequency

value

slope
(m/s2)2/Hz

Hz
Hz
Hz
Hz
Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

frequency

value

slope
(m/s2)2/Hz

Hz
Hz
Hz
Hz
Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

frequency

value

slope
(m/s2)2/Hz

Hz
Hz
Hz
Hz
Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

PROFILE TABLE 12No.
frequency
value
1
Hz
2
Hz
3
Hz
4
Hz
5
Hz
Minimum Frequency
Maximum Frequency
Abort Level
Note) Only one abort level can be set per the entire profile.

B-22

slope
(m/s2)2/Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

This may not be the latest edition.

Excitation Conditions Requisition Sheet (3)

(

/

)

RANDOM

LIMIT PROFILE TABLE
PROFILE TABLE
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

PROFILE TABLE
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

PROFILE TABLE
No.
1
2
3
4
5
Minimum Frequency
Maximum Frequency
Abort Level

frequency

value

slope
(m/s2)2/Hz

Hz
Hz
Hz
Hz
Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

frequency

value

slope
(m/s2)2/Hz

Hz
Hz
Hz
Hz
Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

frequency

value

slope
(m/s2)2/Hz

Hz
Hz
Hz
Hz
Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

PROFILE TABLE
No.
frequency
value
1
Hz
2
Hz
3
Hz
4
Hz
5
Hz
Minimum Frequency
Maximum Frequency
Abort Level
Note) Only one abort level can be set per the entire profile.

B-23

slope
(m/s2)2/Hz

dB/octdB/octdB/octdB/octdB/oct(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz(m/s2)2/Hz

Hz
Hz
dB

This may not be the latest edition.

Excitation Conditions Requisition Sheet (4)RANDOM

SAFETY PARAMETERS
ALARM/ABORTS
RMS AlarmdB

RMS ABORTdB

Control Signal Loss

Standard

Alarm Lines
Abort Lines

LOOP CHECKNoise Threshold

30

Maximum Drive

mVrms
mVrms

DRIVE SIGNAL
Drive Clipping

3.0

B-24

Sigma

This may not be the latest edition.

Excitation Conditions Requisition Sheet (5)(1/)

RANDOM

CHANNEL TABLE
channelprofilesensitivity#

No.

A/D No1－

CTL

mV/(m/s2)

－

2

－

CTL

mV/(m/s2)

－

3

－

CTL

mV/(m/s2)

－

4

－

CTL

mV/(m/s2)－

5－current 1

AUX

4.1 mV/(m/s2)

－

6

－

current 2

AUX

4.1 mV/(m/s2)

－

7

－

current 3

AUX

4.1 mV/(m/s2)

－

8

－

current 4

AUX

4.1 mV/(m/s2)

－

9

－

momentAUX

100 mV/(m/s2)

－

10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
27
28

label

type

□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT

RMS abort
RMS abort・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)・ □mV/(m/s2)

B-25

level
□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□
No□Yes・□No

This may not be the latest edition.
29
30□ AUX ・ □LIMIT
□ AUX ・ □LIMIT

mV/(m/s2)mV/(m/s2)

B-26□Yes・□
No□Yes・□No

This may not be the latest edition.

Excitation Conditions Requisition Sheet (5)(2/2)

RANDOM

CHANNEL TABLE
channelprofilesensitivity

No.

31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50
51
52
53
54
55
56
57

A/D No

label

#

type

level
□Yes・□□ AUX ・ □
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT
□ AUX
LIMIT

RMS abort
RMS abort

mV/(m/s2)

No

・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □
・ □

B-27

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

This may not be the latest edition.
58
59□ AUX ・ □LIMIT
□ AUX ・ □
LIMIT

B-28

mV/(m/s2)□Yes・□No

mV/(m/s2)□Yes・□No

This may not be the latest edition.

Excitation Conditions Requisition Sheet (6)RANDOM

H(f) Table
H(f) pair

responsechannelreferencechannelH(f) pair

1

31

2

32

3

33

4

34

5

35

6

36

7

37

8

38

9

39

10

40

11

41

12

42

13

43

14

44

15

45

16

46

17

47

18

48

19

49

20

50

21

51

22

52

23

53

24

54

25

55

26

56

27

57

28

58

29

59

30
DOCUMENTATION
display text

B-29

responsechannelreferencechannelThis may not be the latest edition.
Example of Excitationｓ Conditions Requisition Sheet – RANDOM (1/3)
No

item

explanation

1

TS Name

Fill in the space with the name of the TS.

2

Test Name

Fill in the space with the name of the test the way its content

range

can be understood.
3

File Name

Set the name of the parameter file.

within 24alphanumerics

CONTROLPARAMETERS
4

Test Time

Set the full-level test time.

(hhh:mm:ss)
5

Degrees of Freedom

Set DOF.

240(recommended)

6

Control Spectrum

Choose an excitation control method. (Check one of thealternatives below.)
Avg: average control among control channels
Min: minimum level control among control channels
Max: maximum level control among control channels

7

Start Level

Set the level at which average control is started.

-30 ~ 0 dB

8Initial Test Level

Set the pre-level, at which control signals and measurement

bigger than the startsignals are checked.

level

9

Level Increment

It denotes the step-up levels to shift from the pre-test level tothe full-test level.

REFERENCE
TABLE
10Minimum Frequency

Set the lower-limit excitation frequency.

5 or higher

11

Maximum Frequency

Set the upper-limit excitation frequency.

200 or lower

12Frequency Lines

Set the number of control lines (viz. frequency resolution)

200(recommended)13

Overall RMS

Fill in the space with the RMS of the pre-set excitation
pattern.

14

Excitation Pattern

Draw the excitation (control) pattern diagram.

Diagram (reference)
15

Frequency

Set the frequencies at breakpoints.

16

Value/Slope

Set the PSD level or the gradient of slope.

17－Alarm (dB)

Set the minus alarm level.

18＋Alarm (dB)

Set the plus alarm level.

19－Abort (dB)

Set the minus abort level.

20＋Abort (dB)

Set the plus abort level.

PROFILE TABLE
21

Frequency

Set the frequencies at breakpoints.
B-30

This may not be the latest edition.
Example of Excitation Conditions Requisition Sheet – RANDOM (2/3)
No

item

explanation

22

Value/Slope

Set the PSD level or the gradient of slope.

23

Minimum Frequency

Set the minimum frequency in the frequency band to which

range

limiting is applied.
24

Maximum Frequency

Set the maximum frequency in the frequency band to which
limiting is applied.

25

Abort Level

Set the abort level for the entire profile. (Individual setting ofabort level for each breakpoint is not possible.)

SAFETYPARAMETERS
26

RMS Alarm

Set the alarm level for RMS.

0 or higher

27

RMS Abort

Set the abort level for RMS.

0 or higher

28

Control Signal Loss

Set the control signal loss.

Standard is usually

Choose one from Off/Low/Standard.

chosen.

Off: invalid
Low: abort at -3 dBStandard: abort at -6 dB
29

Alarm Lines

Set the number of alarm lines.

1 or more

30

Abort Lines

Set the number of abort lines.

1 or more

Set the allowable noise level for the phase before starting loop

1 ~ 1,000 mVrms

checking.

usually, “30Loop Check
31

Noise ThresholdmVrms.”
32

Maximum Drive

Set the upper-limit excitation drive voltage for loop checking.

10 ~ 3,300 mV

Set the clipping.

fixed at 3.0 Sigma

DRIVE SIGNAL
33

Drive Clipping
CHANNEL TABLE

34

Channel A/D No.

Fill in the space with the A/D No. of the measurement systemcharge amplifier.

35

Channel LabelSet the name of the channel label.

within 15alphanumerics

36

Channel TypeChoose the type of channels. (Check one of the alternatives
below.)
AUX: measurement channel
LIMIT: limit channel

37

Sensitivity

Set the sensitivity of the charge amplifiers for each channel.

10 ~ 10,000
mV/(m/s2)

38

Profile Number

Set the profile numbers of limit channels.

B-31

1 ~ 50This may not be the latest edition.
Example of Excitation Conditions Requisition Sheet – RANDOM (3/3)
No

item

39

RMS Abort

explanation

range

Either set or choose RMS abort for each channel. (Check one
alternative.)

40

RMS Abort Level

Input RMS abort level if “YES” is chosen for the item “RMS
abort.”

H(f) Table“the number of acquisition channels － 1” is settable.

41

Response Channel

Set the response channel for transfer function analysis.

The channel # in42

Reference Channel

Set the reference channel for transfer function analysis.

the CHANNEL

When “0” is chosen, average-based analysis can be

TABLE is to be

performed. In that case, phase data is not available.

filled in this blank.

Set the title the way the content of excitation can bewithin 64

understood.

alphanumerics

DOCUMENTATION
43

Display Text

The title is indicated (printed) with analysis data.

B-32

Appendix C Data Acquisition/Analysis Conditions Sheet
Appendix C Data Acquisition/Analysis Conditions SheetThis may not be the latest edition.

Data Acquisition/Analysis Conditions Sheet

final checkTSOP

1. test name＊1:

2. excitation waveform:□RANDOM ・ □SINE （□UP ・ □DOWN ・ □UP-DOWN）

3. data acquisition conditions:
3.1 channel information ＞＞＞

refer to data acquisition database list

3.2 sampling frequency (as below)

analysis frequency (upper-limit data acquisition freq.)× sample rate multiplier (multiplication)

sampling frequency

frame size

SINE

5,000 × 2.56

12,800Hz

4,096

RANDOM

250 × 5.12

1,280Hz

1,024

4. analysis conditions□ response curve

shown in data acquisition/analysis conditions sheet - 1□ PSD/auto power spectrum

shown in data acquisition/analysis conditions sheet - 2□ transfer function/coherence

shown in data acquisition/analysis conditions sheet - 3

C-2

This may not be the latest edition.

Data Acquisition/Analysis Conditions Sheet 1

1. name of analysis: response curve analysis

2. analysis range
□ UP

□

□

DOWN

UP－DOWN

3. processing mode: fundamental

4. analysis channel
4.1 response channel□ ALL□ A/D No

5. graph display designation
5.1 X-axis scale (frequency)
upper limitHzlower limitHz□□ linearlogarithm

5.2 Y-axis scale
upper/lower scale: □AUTO□fixedupper limit
lower limit□logarithm□linearC-3

This may not be the latest edition.

Data Acquisition/Analysis Conditions Sheet 2

1. name of analysis: PSD / auto power spectrum
□

PSD

□

auto power spectrum

2. analysis range
2.1 time□ entire full-level time
□ from () sec. to () sec. after the start of full level.

□ others: fromto

3. window
・Hanning (“Hanning” is usually chosen for analysis.)・Hamming
・Blackman
・Harris・None

4. the number of average operations＊2:

5. analysis channel
5.1 response channel□ ALL□ A/D No

6. graph display designation
6.1 X-axis scale (frequency)
upper limitHzlower limitHz□□ linearlogarithm

6.2 Y-axis scale
upper/lower scale: □AUTO□fixedupper limit
lower limit□logarithm□linearC-4

This may not be the latest edition.

Data Acquisition/Analysis Conditions Sheet 3

1. name of analysis: transfer function analysis / coherence□transfer function analysis□

coherence

2. analysis range
2.1 time□ entire full-level time
□ from () sec. to () sec. after the start of full level.

□ others: fromto

3. window (only for random excitation)
・Hanning (“Hanning” is usually chosen for analysis.)・Hamming
・Blackman
・Harris・None

4. the number of average operations＊2:

5. analysis channel
5.1 reference channel＊3
A/D No.

(name of signals:)

5.2 response channel□ ALL□ A/D No

6. graph display designation
6.1 X-axis scale (frequency)
upper limitHzlower limitHz□□ linearlogarithm

6.2 Y-axis scale (amplification ratio of transfer function)
upper/lower scale: □AUTO□fixedupper limit
lower limit□logarithm□linear

C-5

This may not be the latest edition.

Data Acquisition/Analysis Conditions Sheet 4

1. name of analysis: waveform display

2. analysis range
2.1 time□ entire full-level time
□ from () sec. to () sec. after the start of full level.

□ others: fromto3. analysis channel
3.1 response channel□ ALL□ A/D No

4. scale
4.1 X axis (time-series axis)

4.2 Y axis (amplitude)☐

auto scale

☐

time:

☐

others:☐auto scalesec～☐ others:～

5. others
5.1 print format□

1 channel / sheet□

channels / sheet～

5.2 grid□ ON (with additional lines)□ OFF (only gridlines, with no additional lines)

C-6

sec

This may not be the latest edition.

Special Notes for Data Acquisition/Analysis Conditions Sheet

No

item

*1 test namespecial note
within 24 letters with alphanumerics, underlines, and hyphenssampling frequency (Hz) ＊ analysis time

the number of*2 average

the number of average operations ≦operations*3

frame sizereference

When performing transfer function analysis, the A/D No. and signal name of the reference

channelchannel used as the standard are to be specified.

C-7

Appendix D Data Acquisition Database (Instruction and Example)
Appendix D Data Acquisition Database (Instruction and Example)

Please fill out the sheets following the examples and instructions in this Appendix, and submit it to us prior to
the execution of the test.

This may not be the latest edition.

data acquisition database list (acceleration) sheet
measurement ID

A/D No.

name of position

A/D Ch #Remark

1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50

D-2

Test Name:
acceleration sensor
full
informationscale

sensordirection(polarity)
+-

model
#

S/N

Position

Model
Numbe
r

SerialNumber(pC/m/s2)(m/s2/fs)

Sensitivity(mV or pcC/EU)

FS Input
Range
(EU)

sensitivity

limi
t
ch#

This may not be the latest edition.

data acquisition database list (strain) sheet
measurement
ID
A/D No.

name of position

sensordirection(polarity) +-A/D Ch #RemarkPosition

401
402
403
404
405
406
407
408
409
410
411
412
413
414
415
416
417
418
419
420
421
422
423
424
425
426
427
428
429
430
431
432
433
434
435
436
437
438
439
440
441
442
443
444
445
446
447
448
449
450

D-3

Test Name:strain gauge
information
gaugemodel#
factorModel Number

Gauge
FactorSensitivity(mV or pcC/
EU)

FS
Input
Range
(EU)

This may not be the latest edition.

Example of Data Acquisition Database List
Data Acquisition Database List (acceleration) Sheetmeasurement
ID
A/D No.
name of position
sensordirection(polarity)+ -(1/ 1)

Test Name: TEST1

acceleration sensor information
model#S/N

A/D Ch#RemarkPosition

Model
NumberSerialNumber

1
2
3

Mon1
Mon2
REF1

+1X
+1Y
+1Z

224C
224C
224C

A70P
A72L
A75M

full scalesensitivity(pC/m/s2)(m/s2/fs)

Sensitivity(mV or
pC/EU)
1.23
1.24
1.25

FS Input
Range
(EU)
10
10
10

limit
channel#567<explanation for the information to be filled in the acceleration database list>
A/D Ch#acceleration: 1 ~ 400within 29 letters with alphanumerics, hyphens, underbars, spaces, etc. (capital/small
Remarkletters discriminable)
Positionpolarity (＋,－)＋11 or fewer numbers＋direction (X, Y, Z)
Model Number
model number of acceleration sensor
Serial Number
serial number of acceleration sensor
Sensitivity
sensitivity of acceleration sensor(mV or pC/EU)
FSInputRange (EU)m/s2 range
The channel # in the CHANNEL TABLE of the excitation conditions requisition sheet
Limit Channel
is to be filled in this blank.
data acquisition database list (strain) sheet
measurement ID
A/D
name ofsensor directionNo.
position(polarity) +A/D
Ch#

Remark

401

1C

402

1T

Position

Test Name: TEST1
strain gauge information
gauge
model#
factorModel Number
KFG-5-120-C111
KFG-5-120-C111

Gauge
FactorSensitivity(mV/EU)FS Input Range

2.09

2612.50.003822.09

2612.50.00382<explanation for the information to be filled in the strain database list>
A/D Ch#strain: 401 ~ 500
within 29 letters with alphanumerics, hyphens, underbars, spaces, etc. (capital/small
Remarkletters discriminable)
Model Number
model number of strain gauge
Gauge Factor
gauge factor of strain gauge
Sensitivity ( mV/EU)
Sensitivity = 1 / (4 / (5 × Gauge Factor))
FS Input Range
FS Input Range = 10 / Sensitivity

D-4