Global version

Dynamic Simulation System
Full Lineup Catalogue

Head Office e-mail info-global@imv-corp.com
webhttps://we-are-imv.com/en/*The specifications and design are subject to change without notice.

JQA-1573

DSS Business Division
MES Business Division
IMV Advanced Technology Research Laboratory
Sales Division
Quality Assurance Department
Personnel/General Affairs Department

CN/14640E Osaka Site

April 2023
Cat No.2304⑧DSS_EINDEXWorld’s leading supplier of highreliability vibration test systems
Wide range of industries benefit throughquality and reliability improvements

Series Arrangements

P.03[Basic Systems] Vibration Test Systems
EcologyHigh Grade Range A-series
Large Displacement Range J-series
Standard Range i-series
Transportation Test Range C-seriesHigh Excitation Force Water Cooled Range K-series
Low Acoustic Noise and Compact Range m-seriesHigh Frequency and Compact Range VSH/PET
Optional Units

P.07
P.09
P.13
P.15
P.17
P.19
P.21
P.23
P.25

[Multi-axis systems] Vibration Test Systems
P.35
2-Axis Changeover Systems DC-series
P.36
3-Axis Changeover Systems TC-series
P.37
2-Axis Simultaneous Systems DS-series
P.38
3-Axis Simultaneous Systems TS-series
P.39
6 Degrees of Freedom Systems TTS-series[Environmental Test Systems] Vibration Test System
P.42
Chamber for Vertical Excitation
P.43
Chamber for both Vertical and Horizontal Excitation
P.45
Chamber for Multi-Axis Excitation
P.46
Prefabricated Chamber for Large Specimens
P.47
Climatic Chamber Controllers
P.48
Option[Vibration Controller] K2+
Vibration Controller K2+

P.50[Case Studies]
Automotive Parts
Electronic Parts
Transportation Test
Construction Machinery
Earthquake Resistance
Aerospace
Other Applications

P.56
P.61
P.62
P.63
P.64
P.65
P.66

Technical GuidanceConversion Table
Related Products
Export of Products
IMV Test Lab Network
Coverage
System Layout

P.67
P.74
P.75
P.76
P.77
P.79
P.80

Since it was founded in 1957, IMV has been proud to be at the forefront ofresearch and development in vibration testing systems, supplying technically-advanced systems, with safety and reliability as first priorities.
The range of IMV vibration-test systems includes single-axis and simultaneous
multi-axis systems for up to six degrees of freedom simulation. A range ofvibration and diagnostic instruments are also available. Engineering consultancy
services to assist customers with vibration measurement, analysis and testing
can also be provided.
IMV designs, manufactures, markets and maintains vibration test systems which
simulate actual vibration environments, and measuring systems which record andanalyse vibration created or experienced by a product. IMV can also provide test
laboratory and consultancy services.
We are proud to be contributing to the safety and reliability of a wide range of
products by working with the automotive, aerospace, electrical machinery andstructural engineering industries to solve problems caused by vibration.
Our policy is to continue to develop our skills and products to ensure we continue
to provide the best possible service to our clients.

01

02

Series Arrangements
Vibration Test Systems Lineup Chart

J-series

Large displacement

Low acoustic
noise and compact

Standard

Transportation

A-series
High Grade

K-series

High excitation
force andwater cooled

Real environment

Strokei-series

c-series

m-series

Combined
environmental test

Transportation test

Multi-point test

Excitation force

A-series
J-series
i -series

03

Automotiveparts

Aerospace

Electronicparts

6 degrees of freedom test

Car audio, Navigation system,
Door mirror, Inverter, Motor, Light
associated part, ECU associatedpart,
Solenoid,
Car-mounted
meter, Electric power station
motor, Combination meter, Fuelpump, Inlet system part, Hybrid
associated part, Battery, Electric
pump, Muffler, Catalyst, Fuelbattery, ABS coil, Seat belt,
Breaking system

Personal monitor TV, Communications equipment, Resin product,
Seal material, Dish, Chair, Aircraft
enginecomponent,Space
environmental utilization, Airborne
equipment

LCD TV, Connector component,
Car mounted electric component,
General purpose motor, In-rackequipment, PC, Printed circuitboard, Impact from transportation

Electricalequipment

Transportation
environment

Usage
environment

Navigation system, Car mounted
telecommunication equipment,
Vending
machineontheexpressway, Industrial motor,
Antenna associated component,
Large antenna

Industrial robot, Digital camera,
Lens, Optical equipment, Surface
mounter associated component,
Mobile phone, Copy machine,
Video camera

Withstanding voltage transformer,
Fuel battery, Inverter associatedcomponent, Space battery, Largelithium battery

Rail vehicle component, Construction
equipment, Shipping on a rough road

Combination meter, Instrumental
panel associated component,
Solar system, Other car-mounted
component, PC

Packing material, Transportation package, Usage environmental
transportation, Domestic electric appliances, Projector

Packing material

Packing material, Transportation package, Usageenvironmental transportation, Game equipment

Inverter equipment

Transportation for medicine

Packing material

Servomotor, Refrigerator, Heater,
Washing machine, Major electronics

Large parabolic antenna, Antenna
associated component

Large battery equipment

Rail vehicle component, Railway
component

Display

ETC for motorcycle, Mobile phone

Medical equipment, Usage board,
Digital camera, Semiconductor
component

Car navigation, Car audio, Bracket

Video camera, Car audio, Copy
machine, Multi-function printerLarge Displacement Range

P13

Standard Range

P15

C-series

Transportation Test Range

P17

K-series

High Excitation Force
Water Cooled Range

P19

Brake, Catalyst, Heat insulation,
Hydraulic sensor, Starter, alternator,
Muffler, Hybrid motor, Battery,Sensor, Dynamo, Power unit

m-series

Low Acoustic Noiseand Compact Range

P21

Air-conditioner vent, ETC, ITS
device, Car-mounted sensor,
Car audio, Navigation system

Board, Mobile phone, Mobile
products, Electronic component,
Compact motor

VSH/PETHigh Frequency
and Compact Range

P23

O2 sensor, Exhaust sensor

Filling, Piezo-electric element, Sensor associatedcomponent, SW associated component

2-Axis Changeover Systems

P35

3-Axis Changeover Systems

P36

Door mirror

Satellite equipment, Propeller engine

Information andtelecommunicationequipment

Precisionequipment

P09

Structure(miniature)

Radiator, Car air-conditioner module,Compressor
Radiator, Car air-conditioner module

2-Axis Simultaneous Systems

P37

Radiator, Car air-conditioner module,
Back mirror

3-Axis Simultaneous Systems

P38

Car audio, Navigation system, Car navigation system,
Air-conditioner, Vibration insulation mount, Radiator

6 Degrees of Freedom Systems P39

Ride quality, Construction equipment,
Cutaway body

Vibration Test Systems Lineup Chart

Multi-axis test
Reproducibility

High Grade Range

DC-series
TC-series
DS-series
TS-series
TTS-seriesMulti-axis combined test

Aviation communication equipment,
Aircraft component

Real environmental shipping,
Car audio, LCD panel, Domestic
electric appliances

Large battery equipment, Powerboard, Control board

Battery

Cushioning material, Packing material,
Transportation equipment

Earthquake simulation system,
Earthquake resistance test system

Cabin for construction equipment

Vibration Test Systems Lineup Chart04

Basic systems

Vibration Test Systems

Basic Systems
A-series
Large Displacement Range
J-series
Standard Range
i-series
Transportation Test Range
C-series
High Excitation Force Water Cooled Range K -series
Low Acoustic Noise and Compact Range
m-series
High Frequency and Compact Range
VSH/PET

P.17

Optional Units

P.25

P.09

High Grade Range

P.13
P.15

P.19
P.21
P.23

Approach to low noise

Upper (armature) support system PS Guide

One of the world’s largest class air-cooled shaker systems

Simple confirmation of reduction of CO2 and electricity consumption

Careful attention to the design of the top cover using

High vibration levels intensity places extreme stress on the main

By taking advantage of the latest finite-element analysis

When combined with the IMV 'K2' vibration controller, theairflow modeling reduces the air velocity and the resulting

parts of the vibration generator. The Parallel Slope Guide (PSG)

tools, the magnetic circuit and cooling designs used in the

ECO-shaker system computes and displays electricity

acoustic noise.

uses a patented design to achieve a highly durable armature

IMV air-cooled range enable higher force ratings (to 74 kN)

savings in real-time. A report of energy consumption can

support which also gives excellent performance.

to be achieved. Air-cooled systems are lower cost both tobe produced after each test.

provides sufficient stiffness to

The design

install and to maintain compared to water-cooled systems.

cross-axis forces and produces
low distortion at all levels ofvibration.

Energy-saving
results screen

05[Basic systems] Vibration Test Systems[Basic systems] Vibration Test Systems

06

Vibration Test Systems Basic Systems

Ecology

Basic systems

Environmentally-friendly vibration systems

Automatic energy saving

Energy saving type vibration
test system [ECO-Shaker]

Upgrading existing systems

ECO-shaker is an electrodynamic vibration test system in which
the output of the power amplifier, power input to the vibration
generator and cooling blower speed are automatically optimised,according to the payload and test requirements.
Complicated manual settings are no longer needed.
Changes in the operating environment or in test level are accom-

ISM-EM technology can be added to existing IMV vibration test

Vibration test systems consume a lot of electricity. IMV

systems by installing the ISM-EM module and additional software.

has developed environmentally friendly products which

Contact IMV or your local distributor for further information andminimise the required electric power and cut downdelivery.

electric consumption and CO2 emissions. Due to thegreat contribution to the promotion of efficient use ofmodated without operator intervention.

energy, the technology of ECO-Shaker received the
Chairman’s award from The Machinery Federation in[Features]

2012.

• Only vibration test pattern need to be set• Automatic response to changes in sample under test or test level

Intelligent Shaker Manager• Continuous monitoring of temperatures used to control blower speed
Vibration controller K2+*Operation condition selection system and method (JP Patent No. 4231095)

Self
diagnosis
technology*Operation condition selection system and program (JP Patent No. 4263229)

Effect of energy saving
Conventional system

The lower the system output, the more energy saving can be

Calculation of CO2 reduction, referring to actual dataof our i250/SA4M (Maximum force 32 kN)

Conditions

1) Random 2) Average operating output: 25 %3) Average operating ratio per year: 70 %*Results may vary for systems, test conditions and cases.

Save up to 80 % on your running costs

OperatingOperatingoutput 50 ％output 25 ％Field coil

60 %Power amplifier

DOWN

36 %
DOWN

0 10 20 30 40 50 60 70 80 90 100

Operating output (%)

Operating output (%)

Comparison of power consumption
with the conventional system

Operation of ISM-EM (Power consumption)
Minimisingconventionaltheenergyvibration

consumption

of

test

would

systema

speed

Contribution to the environment

Ensuring the vibration system is operat-

Many countries have legislated, such as the Clean

ing efficiently not only saves money; it

Development Mechanism in the Kyoto Protocol, and thealso can reduce noise levels and heat

EU Energy Efficiency Directive, obliging businesses anddissipation into the workplace. This

their products to be more energy-efficient. The IMV

improves the working environment andECO-shaker systems help to meet these regulations.

Optimised for test level

The Integrated
Drive signal

toachieve

Optimised for test level

Control for maximum
efficiency

cally controls the power amplifier output, fieldblowerImprovement of working conditions[Saving energy technology]
ISM-EM
EM:Energy Manager

Field current

rated within the ECO-shaker system automatiand

ISM-EM unit

ISM-EM

Shaker Manager (ISM-EM) technology incorpo-

level

Energysavingtechnology

can simplify initial installation.

require complex calculation and adjustments tosuit the test requirements.

Existing system

Example design

0 10 20 30 40 50 60 70 80 90 100

Reduce yout CO2 emissions by up to 80 %ISM

Model : EM2501

BlowerPower consumption (kW)Calculation
methodEco-shaker

Model : i250/SA4M

achieved.

Test
monitoring
technology

Vibration generator

themaximum efficiency under all test conditions.

Speed of rotation

Vibration controller

Optimised for test level

Power amplifier
Blower07[Basic systems] Vibration Test Systems

Blower[Basic systems] Vibration Test Systems

08Vibration Test Systems Basic Systems

A-series

Improvement of performance
A-series meets the demandHigh Grade Range

Improvement in excitation force

Standard 76.2 mmp-p displacement *Only for A30, A45, A65, A74

When compared with the conventional i- & J-series, the A-series has

A-series has a displacement of 76.2 mmp-p (3-inch stroke), which

increased relative excitation force.

provides a good balance within the specifications for velocity,•Increased force per system power requirement

acceleration and displacement.

•Increased force per system massThis single system can be used for a very wide variety of tests.

Basic systems

A wider range of test requirements and higher test specifications.
A-series meets the needs for such a versatile test environment.

•Increased force per system size
70

Sine force (kN)60

A-series

50
40
30
20

0

i-series (conventional)
51 mmp-p displacementi-series (conventional)

10
0

20

40

60

80

A-series

J-series (conventional)
100 mmp-p displacement

100

Power requirement (kVA)

Increase in frequency range

Introduction of new power module

In addition to the increased displacement of 76.2 mmp-p, the maximum

By developing a power amplifier that uses a new next generation Siliconfrequency range is also increased when compared to the i-, and J-series.

Carbide power module, IMV has achieved low noise and high efficiency.
This new power module is standard-issue for all A-series models.
Comparison of old and new power amplifiers

A30/EM3HAG

2

4500

Old amplifier
New amplifier

4000
3500

Ratio

Maximum frequency range (Hz)5000

A-series

3000

1

2500

i-series

2000
1500

J-series (100 mmp-p displacement)
0

20

40

60

80

0
Size

Output power

Heat generation

Excitation force (kN)High velocity shock testing

A new standard created by listening to our customers.
A wider range of test requirements and higher test specifications.
A-series meets the needs for such a versatile test environment.
Advanced automatic energy saving, high level of functionality and a protected test environment.
A-series improves the working environment of vibration testing.

Where a test requires a high shock velocity, traditional shaker systems use a matching transformer to achieve the necessary higher armature voltage.
Since IMV’s ECO-system has complete control over the field level, the field value can be adjusted to increase the maximum shock velocity capability of thesystem. By entering the specified shock profile into IMV’s K2 controller. The field level in the shaker is automatically adjusted to ensure that the required
velocity is achieved. A-series (EM amplifier model) provides a maximum of 3.5 m/s shock velocity testing.

Examples of shock test

Model
Rated Force Shock (kN)

i-series
Maximum Velocity Shock (m/s peak)(conventional)

Maximum Displacement (mmp-p)
Maximum Load (kg)No applicable product J230/SA3HAG J240/SA4HAG J250/SA6HAG J260/SA7HAG No applicable product
ー
ー
55
40
80
108
ー
ー
2.4
2.4
2.4
2.4
Maximum Displacement (mmp-p)
ー
ー
100
100
100
100
Maximum Load (kg)Not achievable (not enough velocity)
ー
ー
Model

Rated Force Shock (kN)J-series(conventional) Maximum Velocity Shock (m/s peak)

100G[Improvement of performance][User friendly and Secure][User first principle]

i220/SA1HAG
16
2.2
51
Not achievable (not enough velocity and displacement)

11ms

A-series

A11/EM1HAG A22/EM2HAG A30/EM3HAG A45/EM4HAG A65/EM5HAG A74/EM8HAG
Model
Rated Force Shock (kN)
60 (50)22 (16.5)
180 (160)
44 (36)90 (80)130 (120)
Maximum Velocity Shock (m/s peak)
2.5 (3.5)
2.5 (3.5)
2.5 (3.5)
2.5 (3.5)
2.5 (3.5)
2.5 (3.5)
Maximum Displacement (mmp-p)
76.2
51 (55）76.2
51 (55）76.2
76.2
Maximum Load (kg)*
17
5
86
14
30
48

*Maximum load on bare table09[Basic Systems] Vibration Test Systems[Basic Systems] Vibration Test Systems

10Vibration Test Systems Basic Systems

Table Insert Pattern (Unit: mm)User friendly and Secure

Advanced automatic energy saving, high level of functionality and a protected test environment.
A-series improves the working environment of vibration testing.

Diameter φ210
13-φ11 Depth 20 M10 Depth 25

Diameter φ280
17-φ11 Depth 20 M10 Depth 25

Diameter φ290
17-φ11 Depth 20 M10 Depth 25

Diameter φ436
25-φ11 Depth 20 M10 Depth 25

Diameter φ446
25-φ11 Depth 20 M10 Depth 25(P.C.D.100, 160)

(P.C.D.100, 160, 250)

(P.C.D.100, 160, 250)

(P.C.D.100, 160, 250, 400)

(P.C.D.100, 160, 250, 400)

A11

A30

A45

A65/A74

Specifications

International safety standards

Lower power consumption

A22

In comparison with the same class of conventional systems (i, J-series),

A-series complies with internation-

System Model

A11/
SA1HAG

A30/
A45/
A22/
A30/
A65/
A45/
A11/
A22/
A65/
A74/
A74/
EM1HAG SA2HAG EM2HAG SA3HAG EM3HAG SA4HAG EM4HAG SA5HAG*8 EM5HAG*8 EM6HAG*8 EM8HAG*8

the A-series achieves lower power consumption. With an automatic energy-

al safety standards.

Frequency Range (Hz)0-4500*Sine (kN)
Rated Random (kN rms)*1
Force Shock (kN)High Velocity Shock (kN)
Sine (m/s2)
2
Maximum Random (m/s rms)
Acc.
Shock (m/s2 peak)
SystemHigh Velocity Shock (m/s2 peak)Specifications
Sine (m/s)
Maximum Shock (m/s peak)
Vel.
High Velocity Shock (m/s peak)
Maximum Sine (mmp-p)
Disp. High Velocity Shock (mmp-p)

11
11
22
1000
630
2000
2.0
2.5
51
64
200
20.4
75*3
A11
11
210
294
946 ×
827 ×
676
585
1080

0-4500*5
11
11
22
16.5
1000
630
2000
1500
2.0
2.5
3.5
51
55
64
200
20.4
75*3
A11
11
210
294
946 ×
827 ×
676
585
1080

saving function, increased energy saving is achieved across all force ranges.

Low radiatednoiseComparison of consumed power per excitation force A65 vs i260

High resistance toelectromagnetic inteference(Prevents unexpected operation)

Power requirement (kVA)70
60

Resistance to breaking
from falling objects

50
40i260 (Conventional)

Finger trap guard

30
20

A65

10
0

10

20

30

40

50

Maximum Travel (mmp-p)
Maximum Load (kg)60

70

Excitation force (kN)

Vibration
Generator

No risk of electric shock

Power Requirements (kVA)*2
Breaker Capacity (A)ModelArmature Mass (kg)Armature Diameter (φmm)
Allowable Eccentric Moment (N・m)
Dimensions (mm) W × H × D
Shaker Body Diameter (φmm)
Mass (kg)No risk of electric shock

Optional built-in vibration controller*Only for A12, A22, C10

Controller

The keyboard can be stored when it is not used.

Maximum Output (kVA)*Keyboard with numeric keypad

Cooling

0-3300
22
22
44
36
1000
630
2000
1636
2.0
2.5
3.5
51
55
64
300
30
100*3
A22
22
280
700
1038 ×
955 ×
775
678
1600

0-2600
30
30
60
900
630
1818
2.0
2.5
76.2
82
400
36
125*3
A30
33
290
850
1100 ×1048 ×
840
725
2100

0-2600
30
30
60
50
900
630
1818
1515
2.0
2.5
3.5
76.2
76.2
82
400
36
125*3
A30
33
290
850
1100 ×1048 ×
840
725
2100

0-2600
45
45
90
900
630
1800
2.0
2.5
76.2
82
600
57
200*3
A45
50
436
1550
1232 ×1215 ×
1040
825
3200

0-2600
45
45
90
80
900
630
1800
1600
2.0
2.5
3.5
76.2
76.2
82
600
57
200*3
A45
50
436
1550
1232 ×1215 ×
1040
825
3200

0-2600*6
65
65
130
900
630
1806
2.0
2.5
76.2
82
1000
83
300*3
A65
72
446
1550
1310 ×1253 ×
1040
925
4200

0-2600*6
65
65
130
120
900
630
1806
1666
2.0
2.5
3.5
76.2
76.2
82
1000
83
300*3
A65
72
446
1550
1310 ×1253 ×
1040
925
4200

0-2600*6
74
74
148
120
1000
630
2000
1621
2.0
2.5
3.5
76.2
76.2
82
1000
118
250*4
A74
74
446
1550
1310 ×1253 ×
1040
925
4200

0-2600*6
74
74
180
160
1000
630
2000
2000
2.0
2.5
3.5
76.2
76.2
82
1000
118
250*4
A74
74
446
1550
1310 ×1253 ×
1040
925
4200

44
1160 ×1950 ×
850
1000

68
580 ×
1950 ×850
1000

681160 ×1950 ×
850
1150

100
1160 ×1950 ×
850
1340

100
1160 ×1950 ×
850
1850

707 ×
1531 ×
917

44
31
31
580 ×
580 ×
580 ×
1950 ×1950 ×1950 ×
850
850
850
900
590
520
See Vibration Controller K2
Air cooling
1057 ×707 ×
707 ×
1841 ×1531 ×1531 ×
1125
917
917

1169 ×2123 ×799

1214 ×2006 ×1124

1128 ×2380 ×899

1462 ×2800 ×927

1462 ×2800 ×
927

210
5.5
200

210
5.5
200

280
11
250

420
18.5
250

228
18.5
250

536
30
250

536
30
250

12
580 ×
1950 ×
850
470

24
580 ×
1950 ×
850
350

24
580 ×
1950 ×850
560

Dimensions (mm)W × H × D*7606 ×1315 ×891

708 ×1421 ×782

707 ×1531 ×917

Mass (kg)Wattage (kw)
Duct Hose Diameter (φ)

125
3.7
125

140
3.7
125

210
5.5
200

Mass (kg)Vibration Controller
Cooling Method

Blower0-3300
22
22
44
1000
630
2000
2.0
2.5
51
64
300
30
100*3
A22
22
280
700
1038 ×
955 ×
775
678
1600

12
580 ×
1950 ×850
280

Dimensions (mm) W × H × D*Display size is 17 inch

5

SA1HAG-A11 EM1HAG-A11 SA2HAG-A22 EM2HAG-A22 SA3HAG-A30 EM3HAG-A30 SA4HAG-A45 EM4HAG-A45 SA5HAG-A65 EM5HAG-A65 EM6HAG-A74 EM8HAG-A74

Model
Power
Amplifier

It is possible to save the space by incorporating PC, display and keyboard for vibration controller into the power amplifier.

Basic systems

A-series changes

210
5.5
200

250
11
250

*1 Random force ratings are specified in accordance with ISO5344 conditions. Please contact IMV or your local distributor with specific test requirements.
*2 Power supply: 3-phase 200/220/380/400/415 V (A74 is only AC380/400/415 V), 50/60 Hz. A transformer is required for other supply voltages.
*3 Breaker capacity for AC200 V.
*4 Breaker capacity for AC400 V.
*5 Above 4000 Hz, the force rolls-off at a rate of -6 dB/oct.
*6 Above 2000 Hz, the force rolls-off at a rate of -12 dB/oct.
*7 Specification above applies to 60 Hz. Dimensions change for 50 Hz.
*8 An export license is required for exporting the shaker system of over 50 kN sine force. (see P. 76)*The specification shows the maximum system performance. For long-duration tests, system must be de-rated up to 70%. Continuous use at maximum levels may cause failure.
Please contact IMV if your system operates at more than 70%.
*For random vibration tests, please set the test definition of the peak value of acceleration waveform to operate at less than the maximum acceleration of shock.
*Frequency range values vary according to the sensor and vibration controller.
*Armature mass and acceleration may change when a chamber is added.
*Mass and dimensions may change for CE-marked systems.

11[Basic Systems] Vibration Test Systems[Basic Systems] Vibration Test Systems

12Vibration Test Systems Basic Systems

J-series

J260/J260S

J250

J240

J230

Table Insert Pattern (Unit: mm)

Specifications

Diameter φ446 (J260)
Diameter φ432 (J260S)

17-M10 Depth 40

25-M10 Depth 40

25-M10 Depth 40(P.C.D.100, 160)

(P.C.D.100, 160, 250)

(P.C.D.100, 160, 250, 400)

(P.C.D.100, 160, 250, 400)

J230/SA3HAG J230S/SA7HAG J240/SA4HAG J240/SA6HAG J250/SA5HAG J250/SA6HAG J260/SA7HAG*6 J260S/SA16HAG*60-30000-20000-30000-24000-24000-22000-22000-2600* 4
54
16
54
16
24
24
35
40
Sine (kN)
Rated Random (kN rms)*1
54
16
54
16
24
24
35
40
Force
108
40
196
40
55
70
70
80
Shock (kN)
857
941
857
888
923
923
777
888
Sine (m/s2)
Maximum Random (m/s2 rms)
600
658
600
622
646
646
544
622
Acc.
1714
2000
2000
2000
2000
2000
1555
1777
Shock (m/s2 peak)
System
2.4
2.4
2.4
2.4
2.4
2.4
2.4
2.4
Specifications Maximum Sine (m/s)
Vel. Shock (m/s peak)
2.4
2.4
4.6
3.5
2.4
3.6
2.4
2.4
100
100
100
100
100
Maximum Disp. Sine (mmp-p)
100
100
100
116
120
116
120
120
120
120
120
Maximum Travel (mmp-p)
1000
300
1000
300
400
400
600
600
Maximum Load (kg)
86
28
96
38
38
52
53
57
Power Requirements (kVA)*2
300
100
500
150
150
200
200
200
Breaker Capacity (A)*3
Model
J260S
J230
J230S
J240
J240
J250
J250
J260
63
45
63
18
26
26
45
17
Armature Mass (kg)
432
440
446
200
290
290
440
200
Armature Diameter (φmm)
1550
1550
1550
700
850
850
1550
700
Allowable Eccentric Moment (N・m)Vibration
Generator
Dimensions (mm) W × H × D 1124 × 1079 × 850 1124 × 1079 × 850 1234 × 1145 × 890 1234 × 1145 × 890 1463 × 1301 × 1100 1463 × 1301 × 1100 1527 × 1319 × 1100 1632× 1388× 1130
860
860
920
920
630
630
720
720
Shaker Body Diameter (φmm)
3500
3500
4100
5000
1800
1800
2400
2400
Mass (kg)System Model
Frequency Range (Hz)Power
AmplifierController

Cooling

Basic systems

Large Displacement Range

Diameter φ440

Diameter φ290

Diameter φ200

13-M10 Depth 40

SA3HAG-J30
SA7HAG-J30S
SA4HAG-J40
SA6HAG-J40
SA5HAG-J50
SA6HAG-J50
SA7HAG-J60 SA16HAG-J60S
23
76
30
34
40
50
57
70
Dimensions (mm) W × H × D 580 × 1750 × 850 580 × 1950 × 850 580 × 1750 × 850 1160 × 1950 × 850 580 × 1950 × 850 580 × 1950 × 850 580 × 1950 × 850 1740 × 1950 × 850
330
500
440
1200
880
910
1000
2400
Mass (kg)See Vibration Controller K2
Vibration Controller
Air cooling
Cooling Method
Dimensions (mm) W×H×D*5 606 × 1315 × 891 606 × 1315 × 891 707 × 1531 × 917 707 × 1531 × 917 1057 × 1841 × 1125 1057 × 1841 × 1125 1328 × 2410 × 1097 1328 × 2410 × 1097
250
250
370
370
125
125
210
210
Mass (kg)
Blower
11
11
15
15
3.7
3.7
5.5
5.5
Wattage (kw)
250
250
250
250
200
200
200
200
Duct Hose Diameter (φ)
ModelMaximum Output (kVA)Eco Specifications

J240/SA4HAG(With a slip table)

J-series accommodates high velocity and large displacement testingLong duration shock tests require high velocity and large displacement.
J-series is a high-functionality system that offers usability and durability furnished with functions
that accommodate high velocity and large displacement testing.
[Expanded maximum test range] • Maximum velocity of Sine force: 2.4 m/s • Maximum velocity of Shock force: 4.6 m/s • Maximum displacement: 100 mmp-p[Patented upper (armature) support system PS Guide] Parallel Slope Guide is standard[Low noise] Optimised design of the air intake based on fluid dynamics has reduced the air-intake noise.
[All models can be directly coupled to a climatic chamber]

13

System Model
Frequency Range (Hz)Sine (kN)
Rated Random (kN rms)*1
Force Shock (kN)High Velocity Shock (kN)*7
Sine (m/s2)
2
Maximum Random (m/s rms)
Acc. Shock (m/s2 peak)
SystemSpecifications
High Velocity Shock (m/s2 peak)*7
Sine (m/s)
Maximum Shock (m/s peak)
Vel.
High Velocity Shock (m/s peak)*7
Maximum Sine (mmp-p)
Disp. High Velocity Shock (mmp-p)*7
Maximum Travel (mmp-p)
Maximum Load (kg)Power Requirements (kVA)*2
Breaker Capacity (A)*3
Model
Armature Mass (kg)Armature Diameter (φmm)
Vibration
Allowable Eccentric Moment (N・m)Generator
Dimensions (mm) W × H × D
Shaker Body Diameter (φmm)
Mass (kg)ModelMaximum Output (kVA)Power
AmplifierDimensions (mm) W × H × D
Mass (kg)Controller
Vibration Controller
Cooling Method
Dimensions (mm) W×H×D*5
Mass (kg)
Cooling
Blower
Wattage (kw)
Duct Hose Diameter (φ)

J230/EM3HAG
0-3000
16
16
40
30
941
658
2000
1764
2.4
2.4
3.5
100
100
120
300
28
100
J230
17
200
700
1124 × 1079 × 850
630
1800
EM3HAG-J30

J240/EM4HAG
0-2400
24
24
55
48
923
646
2000
1846
2.4
2.4
3.5
100
100
120
400
38
150
J240
26
290
850
1234x1145x890
720
2400
EM4HAG-J40

J250/EM5HAG
0-2200
35
35
70
68
777
544
1555
1511
2.4
2.4
3.5
100
100
120
600
53
200
J250
45
440
1550
1463x1301x1100
860
3500
EM5HAG-J50

J250/EM6HAG
0-2200
40
40
80
77
888
622
1777
1711
2.4
2.4
3.5
100
100
120
600
57
200
J250
45
440
1550
1463x1301x1100
860
3500
EM6HAG-J50

J260/EM7HAG*60-2600*4
54
54
108
96
857
600
1714
1523
2.4
2.4
3.5
100
100
116
1000
86
300
J260
63
446
1550
1527x1319x1100
920
4100
EM7HAG-J60

23580 × 1750 × 850
380

34
580 × 1750 × 850
490

57
580 × 2100 × 850
960

701160 × 1950 × 850
1400

708 × 1421 × 782
140
3.7
200

707 × 1531 × 917
210
5.5
200

50
580 × 2100 × 850
930
See Vibration Controller K2
Air cooling
1169 × 2123 × 799
280
11
250

1169 × 2123 × 799
280
11
250

1328 × 2410 × 1097
370
15
250

*1 Random force ratings are specified in accordance with ISO5344 conditions. Please contact IMV or your local distributor with specific test requirements. *2 Power supply: 3-phase 200/220/240/380/400/415 V, 50/60 Hz.
A transformer is required for other supply voltages. *3 Breaker capacity for 200 V. *4 Above 2000 Hz, the force rolls-off at a rate of -12 dB/oct. *5 Specification above applies to 60 Hz. Dimensions change for 50 Hz.
*6 An export license is required for exporting the shaker system of over 50 kN sine force. (See P. 76) *7 For high velocity option *The specification shows the maximum system performance. For long-duration tests, system
must be de-rated up to 70%. Continuous use at maximum levels may cause failure. Please contact IMV if your system operates at more than 70%. *For random vibration tests, please set the test definition of the peakvalue of acceleration waveform to operate at less than the maximum acceleration of shock. *Frequency range values vary according to the sensor and vibration controller. *Armature mass and acceleration may change
when a chamber is added. *Mass and dimensions may change for CE-marked systems.

[Basic systems] Vibration Test Systems[Basic systems] Vibration Test Systems

14Vibration Test Systems Basic Systems

i-series

Table Insert Pattern (Unit: mm)
i210

i220

Standard Range

Diameter φ190
17-M8 Depth 20(P.C.D.100)(P.C.D.100, 160)

Specifications
System Model
Frequency Range (Hz)Sine (kN)
Random (kN rms)*1
Shock (kN)
Sine (m/s2)
Maximum Acc. Random (m/s2 rms)
SystemShock (m/s2 peak)Specifications
Sine (m/s)
Maximum Vel.
Shock (m/s peak)
Maximum Disp. Sine (mmp-p)
Maximum Travel (mmp-p)
Maximum Load (kg)Power Requirements (kVA)*2
Breaker Capacity (A)*3
Model
Armature Mass (kg)Armature Diameter (φmm)
Vibration
Allowable Eccentric Moment (N・m)Generator
Dimensions (mm) W × H × D
Shaker Body Diameter (φmm)
Mass (kg)Rated ForcePower
AmplifierController

Cooling

Model
Maximum Output (kVA)
Dimensions (mm) W × H × D
Mass (kg)Vibration Controller
Cooling Method
BlowerDimensions (mm) W × H × D*4
Mass (kg)Wattage (kw)
Duct Hose Diameter (φ)

i210/SA1HAG
0-4000
3
3
9
1000
700
2000
2.2
2.2
30
40
120
6.8
30
i210

i220/SA1HAG
0-3300
8
8
16
1250
875
2000
2.2
2.2
51
60
200
16.4
60
i220

3
128
160
868 × 700 × 458
458
350
SA1HAG-i10
5580 × 1750 × 850
240

6.4
190
294
1020 × 903 × 550
550
900
SA1HAG-i20
10580 × 1750 × 850
280

Basic systems

Diameter φ128
9-M8 Depth 20

See Vibration Controller K2
Air cooling
386 × 882 × 369
22
0.4
125

492 × 1128 × 625
70
1.5
125

Eco Specificationsi220/SA1HAG(With a slip table)

Universally applicable with over 15 years of sales success.
The i-series is a standard range and easier to maintain than custom products.

[Maximum test range]• Maximum acceleration: 1250 m/s2 •Maximum velocity: 3.5 m/s •Maximum displacement: 51 mmp-p •Maximum loading mass: 200 kg[Patented upper (armature) support system PS Guide] Parallel Slope Guide is standard[All models can be directly paired with a climatic chamber.]

System Model
Frequency Range (Hz)Sine (kN)
Random (kN rms)*1
Rated Force
Shock (kN)High Velocity Shock (kN)*5
Sine (m/s2)
Random (m/s2 rms)
Maximum Acc.
Shock (m/s2 peak)
SystemSpecifications
High Velocity Shock (m/s2 peak)*5
Sine (m/s)
Maximum Vel. Shock (m/s peak)High Velocity Shock (m/s peak)*5
Sine (mmp-p)
Maximum Disp.
High Velocity Shock (mmp-p)*5
Maximum Travel (mmp-p)
Maximum Load (kg)Power Requirements (kVA)*2
Breaker Capacity (A)*3
Model
Armature Mass (kg)Armature Diameter (φmm)
Vibration
Allowable Eccentric Moment (N・m)Generator
Dimensions (mm) W × H × D
Shaker Body Diameter (φmm)
Mass (kg)Power
AmplifierController

Cooling

Model
Maximum Output (kVA)
Dimensions (mm) W × H × D
Mass (kg)Vibration Controller
Cooling Method
Dimensions (mm) W × H × D*4
Mass (kg)
Blower
Wattage (kw)
Duct Hose Diameter (φ)

i220/EM1HAG
0-3300
8
8
16
10
1250
875
2000
1562
2.2
2.2
3.5
51
51
60
200
16.4
60
i220
6.4
190
294
1020 × 903 × 550
550
900
EM1HAG-i20
10580 × 1750 × 850
330
See Vibration Controller K2
Air cooling492 × 1128 × 625
70
1.5
125

*1 Ranfom force ratings are specified in accordance with ISO5344 conditions. Please contact IMV or your local distributor with specific test requirements. *2 Power supply: 3-phase 200/220/380/400/415 V, 50/60 Hz.
A transformer is required for other supply voltages. *3 Breaker capacity for 200 V. *4 Specification above applies to 60 Hz. Dimensions change for 50 Hz. *5 For high velocity option*The specification shows the maximum system performance. For long-duration tests, system must be de-rated up to 70%. Continuous use at maximum levels may cause failure. Please contact IMV if your system operates
at more than 70%. *For random vibration tests, please set the test definition of the peak value of acceleration waveform to operate at less than the maximum acceleration of shock. *Frequency range values vary according
to the sensor and vibration controller. *Armature mass and acceleration may change when a chamber is added. *Mass and dimensions may change for CE-marked systems.

15[Basic Systems] Vibration Test Systems[Basic Systems] Vibration Test Systems

16Vibration Test Systems Basic Systems

Standard 76.2 mmp-p displacement

Maximum load 1,000 kg
C-series vibration generators are enhanced for the maximum
allowable payload surpassing the conventional. It enables them toperform vibration testing for heavier specimens.

C-series has a displacement of 76.2 mmp-p (3 inch stroke).

Transportation Test Range

1,000
kg

Basic systems

C-series

300kg=
C-series＞＞=

A-series

CV-series (Conventional)

76.2 mmp-p displacement

40-51 mmp-p displacement

C10

CV-series (Conventional)

A74

1,000 kg

300 kg1,000 kgHigh rigidity
C-series vibration generators are designed to support specimens whose center of gravities are high or deviated from the center lines.
* Please refer to page 73 for allowable eccentric moment.

＞
C10

A11

Rated force: 10 kN
Allowable eccentric moment: 686 N•m

Table Insert Pattern (Unit: mm)

Specifications

C10/SA1HAG

Diameter φ300
17-φ11 Depth 20 M10 Depth 25

Large displacement is ideal for heavy weight transportation testing.

[Large maximum displacement] C-series is suitable for low-frequency, high-displacement tests commonly used in transport vibration testing.

System Model
Frequency Range (Hz)C10/SA1HAG
0-2000Sine (kN)
RatedForce Random (kN rms)
Shock (kN)

10Sine (m/s2)
Maximum
2
System
Acceleration Random (m/s rms)
Specifications
Shock (m/s2 peak)

C10

Vibration
Generator[Basic Systems] Vibration Test Systems

7
20

Model
Maximum Output (kVA)SA1HAG-C10
6.2

Dimensions (mm)580 × 1950 × 850

Mass (kg)Controller

400
280
800

Cooling

260

See Vibration Controller K2
Cooling Method
Air cooling
BlowerDimensions W × H × D (mm)*3 479 × 1075 × 667
56
Mass (kg)Wattage (kw)

2.2Duct Hose Diameter (φ)

200Maximum Displacement (mmp-p)

76.2

Maximum Load (kg)1000

Power Requirements (kVA)*1

11.9*1 Power supply required is 3-phase 200/220/380/400/415 V, 50/60 Hz.
Voltage Down Transformer (Step-down transformer) is required for other voltage.
*2 Breaker capacity for 200 V*3 Specifcation above applies to 60 Hz. Dimensions change for 50 Hz.
*The specification shows the maximum system performance.
For long-duration tests, system must be de-rated up to 70%. Continuous use
at maximum levels may cause failure. Please contact IMV if your system
operates at more than 70%.
*Frequency range values vary according to the sensor and vibration controller.
*Armature mass and acceleration may change when a chamber is added.

1.2

Breaker Capacity (A)*2

50

Model
Armature Mass (kg)C1025

Armature Diameter (φmm)

300

Allowable Eccentric Moment (N・m)
Dimensions (mm)
Mass (kg)

17

Power
Amplifier

2.0

Maximum Sine (m/s)
Velocity Shock (m/s peak)（P.C.D.160, 250）

C-series is optimized for transportation tests.

[Heavy weight load] The improved load capacity realizes vibration testing with heavy weight specimen.

Rated force: 11 kN
Allowable eccentric moment: 294 N•m

686
1100×1142×840
2000[Basic Systems] Vibration Test Systems

18Vibration Test Systems Basic Systems

K-series

Table Insert Pattern (Unit: mm)

Diameter ɸ320
17-M10 Depth 40

Diameter ɸ400
21-M16 Depth 40(P.C.D.160, 250)

(P.C.D.100, 200, 315)

K030

K060

Diameter φ560

Diameter ɸ446
25-φ11 Depth 20 M10 Depth 25

25-φ17 Depth 20 M16 Depth 30(P.C.D.100, 160, 250, 400)

K080

(P.C.D.250, 400, 500)

Diameter φ650
25-φ17 Depth 20 M16 Depth 30(P.C.D.203.2, 406.4, 558.8)

K125A / K125LS

Diameter φ760
33-φ17 Depth 20 M16 Depth 30（P.C.D. 203.2, 406.4, 558.8, 711.2）

K350

K200

Basic systems

High Excitation Force Water Cooled Range

Specifications
System Model

K030/SA4HAG K062/SA8HAG*6 K080/SA10HAG*6 K100A/SA14HAG*6 K125A/SA18HAG*6 K100LS/SA16HAG*6 K125LS/SA20HAG*6 K160/SA20HAG*6 K200/SA24HAG*6 K350/SA36HAG*60-25000-25000-25000-25000-20000-20000-30000-20000-20000-2000
61.7
80
100
125
160
200
30.8
100
125
350
Sine (kN)
Rated Random (kN rms)*1
61.7
80
100
125
160
200
21.5
100
125
315
Force
123.4
160
200
250
320
400
61.6
200
250
700
Shock (kN)
1000
1000
1000
1000
800
1000
1000
1000
1000
1000
Sine (m/s2)
Maximum
2
700
700
700
700
560
700
557
700
700
700
Acc. Random (m/s rms)
System
2000
2000
2000
2000
1600
2000
2000
2000
2000
2000
Shock (m/s2 peak)Specifications
3
2.0
2.0
2.0
2.0
2.0
2.0
1.8
2.0
2.0
2.0
Maximum Sine (m/s)*
Vel.
2.0
2.0
2.0
2.0
2.4
2.4
1.8
2.0
2.0
3.5
Shock (m/s peak)
51
51
51
51
76.2
76.2
51
100
100
76.2
Maximum Disp. Sine (mmp-p)
60
59
62
62
86
86
58
116
Maximum Travel (mmp-p)
116
94
1000
1000
2000
2000
2000
2000
500
2000
Maximum Load (kg)
2000
3000
87
100
150
170
270
300
49
170
Power Requirements (kVA)*2
190
325
Breaker Capacity (A)*4
350
350
600
600
175
600
700
Frequency Range (Hz)Model

Vibration
Generator

Power
AmplifierController
Cooling

K030

K060

K080

K125A

K125A

K125LS

K125LS

K200

K200

K350

27
40
60
80
80
100
100
200
200
350
Armature Mass (kg)
320
400
446
560
560
560
560
650
650
760
Armature Diameter (φmm)
980
980
1550
2450
2450
2450
2450
4900
4900
4900
Allowable Eccentric Moment (N・m)
Dimensions (mm) W × H × D 1100×1090×824 1380×1085×1000 1595× 1200× 1050 1776× 1373× 1300 1776×1373×1300 1990×546×1370 1990×1546×1370 2465×1908×1740 2465×1908×1740 3020×2306×2080
760
900
1000
1100
1100
1100
1100
1260
1260
1630
Shaker Body Diameter (φmm)
3000
3700
5000
7000
7000
8000
8000
19000
19000
40000
Mass (kg)
SA4HAG-K30 SA8HAG-K60 SA10HAG-K80 SA14HAG-K125A SA18HAG-K125A SA16HAG-K125LS SA20HAG-K125LS SA20HAG-K200 SA24HAG-K200 SA36HAG-K350
Model
Maximum Output (kVA)
33
60
100
98
124
124
155
256
320
400
Dimensions (mm) W × H × D 580 ×1950×850 1160× 1950× 850 1160× 1950× 850 1740× 1950× 850 1740× 1950× 850 1740× 1950× 850 1740× 1950× 850 2320× 1950× 850 2900× 1950× 850 4060× 1950× 850
Mass (kg)
950
1350
1500
2500
2600
2600
3300
4850
5000
5450
See Vibration Controller K2
Vibration Controller
Shaker: Water cooling/Power Amplifier: Air Cooling
Cooling Method
195
260
390
390
390
390
390
650*5
650*5
650*5
Primary Cooling Water (ℓ/min)
Dimensions (mm) W×H×D 580 ×1700×850 580 ×1700×850 580 ×1700×850 580 ×1700×850 580 ×1700×850 580 ×1700×850 580 ×1700×850 1050× 1900× 800 1050× 1900× 800 1200× 1950× 1400
Heat
Exchanger Mass (kg)
400
400
400
400
400
400
400
600
600
950

Eco Specifications
K350(With a slip table)

System Model
Frequency Range (Hz)
Rated
Force

High excitation force and silent water cooled system
for improving test environment
K-series, high excitation force water cooled vibration simulating test systems fully developed by IMV.
Advanced function of the K-series will significantly improve the test environment.

[Silent system design] The water cooling system produces neither the intake nor exhaust sounds that an air cooling system emits.
[Record of significant accomplishments] IMV has been developing the most advanced water cooled system.

Sine (kN)
Random (kN rms)*1

K030/
EM4HAG
0-3000
30.8
21.5
61.6
1000
557
2000
1.8
1.8
51
58
500
49
175

K062
/EM8HAG*60-2500
61.7
61.7
123.4
1000
700
2000
2.0
2.0
51
60
1000
87
350

K080/
EM10HAG*60-2500
80
80
160
1000
700
2000
2.0
2.0
51
59
1000
100
350

K100A/EM14HAG*60-2500
100
100
200
1000
700
2000
2.0
2.0
51
62
2000
150
600

K125A/EM18HAG*60-2500
125
125
250
1000
700
2000
2.0
2.0
51
62
2000
170
600

K100LS/EM16HAG*60-2000
100
100
200
1000
700
2000
2.0
2.0
100
116
2000
170
600

K125LS/
EM20HAG*60-2000
125
125
250
1000
700
2000
2.0
2.0
100
116
2000
190
700

K160/
EM20HAG*60-2000
160
160
320
800
560
1600
2.0
2.4
76.2
86
2000
270
-

K200/
EM24HAG*60-2000
200
200
400
1000
700
2000
2.0
2.4
76.2
86
2000
300
-

K350/
EM36HAG*60-2000
350
315
700
1000
700
2000
2.0
3.5
76.2
94
3000
325
-

Shock (kN)
Sine (m/s2)
Maximum
2
Acc. Random (m/s rms)
SystemShock (m/s2 peak)Specifications
3
Maximum Sine (m/s)*
Vel.
Shock (m/s peak)
Maximum Disp. Sine (mmp-p)
Maximum Travel (mmp-p)
Maximum Load (kg)Power Requirements (kVA)*2
Breaker Capacity (A)*4
Model
K030
K060
K080
K125A
K125A
K125LS
K125LS
K200
K200
K350
27
40
60
80
80
100
100
200
200
350
Armature Mass (kg)
320
400
446
560
560
560
560
650
650
760
Armature Diameter (φmm)
Vibration
980
980
1550
2450
2450
2450
2450
4900
4900
4900
Allowable Eccentric Moment (N・m)Generator
Dimensions (mm) W × H × D 1100×1090×824 1380× 1085× 1000 1595× 1200× 1050 1776×1373×1300 1776× 1373× 1300 1990× 1546× 1370 1990×1546×1370 2465×1908×1740 2465×1908×1740 3020×2306×2080
760
900
1000
1100
1100
1100
1100
1260
1260
1630
Shaker Body Diameter (φmm)
3000
3700
5000
7000
7000
8000
8000
19000
19000
40000
Mass (kg)Power
AmplifierController
Cooling

EM4HAG-K30 EM8HAG-K60 EM10HAG-K80 EM14HAG-K125A EM18HAG-K125A EM16HAG-K125LS EM20HAG-K125LS EM20HAG-K200 EM24HAG-K200 EM36HAG-K350
Model
33
60
100
98
124
124
155
256
320
400
Maximum Output (kVA)
Dimensions (mm) W × H × D 1160× 1950× 850 1160× 1950× 850 1160× 1950× 850 1740× 1950× 850 1740× 1950× 850 1740× 1950× 850 1740× 1950× 850 2320× 1950× 850 2900× 1950× 850 4060× 1950× 850
950
1350
1500
2500
2600
2650
3350
4850
5000
5450
Mass (kg)Vibration Controller
See Vibration Controller K2
Cooling Method
Shaker: Water cooling/Power Amplifier: Air Cooling
195
260
390
390*5
390*5
390*5
390*5
650*5
650*5
590*5
Primary Cooling Water (ℓ/min)
Dimensions (mm) W×H×D 580 ×1700×850 580 ×1700×850 580 ×1700×850 580 ×1700×850 580 ×1700×850 580 ×1700×850 580 ×1700×850 1050× 1900× 800 1050× 1900× 800 1200× 1950× 1400
Heat
Exchanger Mass (kg)
400
400
400
400
400
400
400
600
600
950

*1 Random force ratings are specified in accordance with ISO5344 conditions. Please contact IMV or your local distributor with specific test requirements. *2 Power supply: 3-phase 200/220/240/380/400/415 V (K200
and K350 is AC380/400/415V) , 50/60 Hz. A transformer is required for other supply voltages. *3 If the tests (Sweep or Spot) include high velocity, the maximum velocity value should be reduced to 1.4 m/s. *4 Breakercapacity for 200 V *5 Bypass circuit is needed. Please contact IMV or your local distributor for further information. *6 An export license is required for exporting the shaker system of over 50 kN sine force. (See P. 76)*The specification shows the maximum system performance. For long-duration tests, system must be de-rated up to 70%. Continuous use at maximum levels may cause failure. Please contact IMV if your system operates
at more than 70%. *For random vibration tests, please set the test definition of the peak value of acceleration waveform to operate at less than the maximum acceleration of shock. *Frequency range values vary according
to the sensor and vibration controller. *Armature mass and acceleration may change when a chamber is added. *Mass and dimensions may change for CE-marked systems.

19[Basic Systems] Vibration Test Systems[Basic Systems] Vibration Test Systems

20

Vibration Test Systems Basic Systems

Low Acoustic Noise and Compact Range

Table Insert Pattern (Unit: mm)

Basic systems

m-series

Diameter ɸ114
9-M6 Depth 10

Accessories
A pair of carrying handles

Diameter ɸ114
9-M6 Depth 10

Diameter ɸ174
17-M6 Depth 10

Diameter ɸ65
5-M6 Depth 15

Diameter ɸ180
17-M6 Depth20(P.C.D.100)(P.C.D.100)(P.C.D.100, 160)

(P.C.D.50)(P.C.D.100, 160)

m030

m060

m120

m030H

m130LS-CE

Safely and easily carried by
one or two operators.

Option*Removable m030 and m060

Head expander

only

Model

Air pump
The vibration table height isadjusted to compensate form030/MA1

Slip table

Dimensions (mm) Mass (kg) Maximum frequency (Hz) m030 m060 m120

TBV-125--A

TBV-200--A

TBV-315--A*TBV-400--A

125 × 125 × t 20
200 × 200 × t 20

0.9

2000

2.5

1500

315 × 315 × t 30
400 × 400 × t 35

8.5

1000

14.4

600

payload weight using an air“-A” at the end of model number shows that material is aluminum alloy.

pump.

Add the vibration generator type where “

Model

Dimensions

Maximum frequency

Mass (kg)

(mm)

(Hz)

200 × 200
315 × 315500

m030 m060 m120 m130LS
4
4
5.5
–

500

7.5

7.5

9

400 × 400
500 × 500

500

–

12.3

14

–

500

–

–

–

28

TBH-200*

TBH-315*

TBH-400*

TBH-500–*The material of slip plate is aluminum alloy.

” is shown.

*A supplementary guidance system using linear bearings is used with the vibration
generator when combined with the head expander.
Armature mass is increased due to the addition of the guide support.

Silent model suitable for abnormal noise inspection

Supplementary
guidance system(GDP)

Compact and silent design, but also powerful enough for full-scale tests.
[Silent design employing a built-in cooling fan] DC-powered cooling fan is built into the shaker. Natural air-cooling is also used when the cooling fan isstopped for silent operation (with a reduction in performance).

Specifications
System Model

m120/MA1-CE

m030H/MA1

m130LS/MA1-CE

0-30000-30000-20001000-10000

2 – 1000

300

600

1200

380

1300

Random (N rms)

210

420

840

266

650

Shock (N)

300

600

1200

380

1300

500

500

500

200

130

272

352

413

158

123

187

272

352

131

118

Maximum Velocity (m/s)

1.6

1.6

1.6

― *1

1.0

Maximum Displacement (mmp-p)

26

30

30

― *1

51

Maximum Load (kg)

15

15

120

15

100

Rated
Force

No Load (m/s2)
SystemMaximum
0.5kg
Load (m/s2)
Acc.
Specifications
1.0kg Load (m/s2)

Power Requirements (kVA)*2
Model

0.4

0.7

1.1

0.5

1.0

m030-CE

m060-CE

m120-CE

m030H

m130LS-CE
Air Suspension

Diaphragm spring

Diaphragm spring

Air suspension

Rubber spring

Armature Mass (kg)

0.6

1.2

2.4

1.9

10

Armature Diameter (φmm)

114

114

174

65

180
W410 × H592 × D460

Armature Support Methodφ190 × H240

φ230 × H281

φ320 × H327*3

φ190 × H275

Mass (kg)

22

40

110

30

250

Model

MA1-CE

MA1-CE

MA1-CE

MA1-CE

MA1-CE

Dimensions (mm)Maximum Output (kVA)Power
Amplifierm060/MA1-CE

Sine (N)Frequency Range (Hz)Vibration
Generator

m030/MA1-CE

Dimensions (mm) W × H × D
Mass (kg)

1

1

1

1

1

430 × 149 × 430

430 × 149 × 430

430 × 149 × 430

430 × 149 × 430

430 × 149 × 430

25

25

25

25

25

Blower*1 The displacement at the lower limit of frequency (1000 Hz) and maximum acceleration (200 m/s ) is so small that there is no certified value.
*2 Power supply: single-phase AC100 V/200 V or AC110 V/220 V or AC120 V/240 V ±10% 50/60 Hz. A transformer is required for other supply voltages.
*3 Insulation pad (W410 x H45 x D410 mm) is standard equipment.
*The specification shows the maximum system performance. For long-duration tests, system must be de-rated up to 70%. Continuous use at maximum levels may cause failure.
Please contact IMV if your system operates at more than 70%.
*Frequency range values vary according to the sensor and vibration controller.

[Basic Systems] Vibration Test Systems

Without the top cover

Acoustic noise testing is made possible by placing the shaker in a soundproof box.

Excitation at any selected point

Emergency stop switch

Moving device

It is possible to stop thesystem in an emergency.

Eliminates the hassle of moving themachine and enables tests to be performed
in any available space.

Housed in vibration generator
2

21

Slip table

Air cooling

Cooling Method
CoolingHead expander

Soundproof enclosure

Excitation at body

Excitation at drive shaft

Modal analysis can be done by applying vibration to the car
body, etc.

[Basic Systems] Vibration Test Systems

22Vibration Test Systems Basic Systems

Basic systems

VSH/PETHigh Frequency and Compact Range
PA01/PA05/PA05H

Table Insert Pattern (Unit:mm)

Suitable for bench-top simulation

M6 Depth 8

Ideal for bench-top testing

M6 Depth 9

24

1０
φ１
２

φ30

[Compact] Portable[Compatible vibration controllers] Versatile vibration controller provides wide range of test types.

PET-01

PET-05H

PET-05

PET-05/PET-05H

PET-01

Table Insert Pattern (Unit:mm)

OptionAdapter for PET

Diameter φ96
7-M6 Depth 10（P.C.D.80）

VEH-100,VEH-100R

VEH-100

By attaching the adapter to PET series, it is possible to increase the moment restraint force and it can be used as a vibration source for modal
analysis. It also possible to apply vibration to products intricately shaped by combining multiple units.

Specifications
System Model
Frequency Range (Hz)Sine (N)RatedForce Random (N rms)
Shock (N)
SystemSpecifications Maximum Acceleration (m/s2)*1
Maximum Velocity (m/s)
Maximum Displacement (mmp-p)
Maximum Load (kg)Power Requirements (kVA)*2
Model
Armature Support Method
Armature Support Spring Constant (kN/m)
Vibration
Armature Mass (kg)Generator
Armature Diameter (φmm)
Dimensions (mm) W×H×D
Mass (kg)
Model
Power
Maximum Output (kVA)
AmplifierDimensions (mm) W×H×D
Mass (kg)
Cooling Method
Cooling
Dimensions W×H×D (mm)BlowerMass (kg)Specifications
VSH-100-M2

VSH-100R-M2

0-8000
980
392
980
980
0.8
10
30
4.0
VEH-100
Roller / Air suspension―
1.0
96
φ390×H306
120
VAH-M21.5
580×1750×850
230
Air cooling
247×252×284
10.5

0-10000
980
392
980
980
0.8
10
Up to the spring constant
4.0
VEH-100R
Flexures / Rollers
49
1.0
96
φ390×H306
120
VAH-M21.5
580×1750×850
230
Air cooling
247×252×284
10.5*1 Spec described above is under bare table condition. The maximum acceleration decreases when accelerometer and mounting adapter are mounted.
*2 Power supply : three-phase AC200 V±10 %, 50 / 60 Hz (Voltage down transformer [step-down transformer] is required for other voltage)* The specification shows the maximum system performance. For long-duration tests, de-rating by up to 70 % must be applied. Continuous use at maximum levels may cause failure. Please contact IMV if you use more than 70 %.
* Frequency range values vary according to sensor and vibration controller.

23[Basic Systems] Vibration Test Systems

System Model
Frequency Range (Hz)Sine (N)RatedForce Random (N rms)
Shock (N)
SystemSpecifications Maximum Acceleration (m/s2)*1
Maximum Velocity (m/s)
Maximum Displacement (mmp-p)
Maximum Load (kg)Power Requirements (kVA)*2
Model
Armature Support Method
Armature Support Spring Constant (kN/m)
Vibration
Armature Mass (kg)Generator
Armature Diameter (φmm)
Dimensions (mm) W×H×D
Mass (kg)ModelMaximum Output (kVA)Power
AmplifierDimensions (mm) W×H×D
Mass (kg)
Cooling Method
Cooling

PET-01/PA

PET-05/PA

PET-05H/PA

2-12000
9.8
―
―
326
―
5
Up to the spring constant
0.08
PET-01
Diaphragm spring
9.8
0.03
12
75×72×75
1.3
PA01
0.03
279 × 140 × 280
9Natural radiation

2-14000
49
―
―
326
―
5
Up to the spring constant
0.1
PET-05
Diaphragm spring
15.6
0.15
30
116×115×116
5.0
PA05
0.045
279 × 140 × 280
9Natural radiation

5-40000
49
―
―
376
―
5
Up to the spring constant
0.1
PET-05H
Diaphragm spring
15.6
0.13
30
116×115×116
5.0
PA05H
0.045
279 × 140 × 280
9Natural radiation*1) Spec described above is under bare table condition. The maximum acceleration decreases when accelerometer and mounting adapter are mounted.
*2) Power supply : single phase AC100 V ±10 %, 50/60 Hz (Voltage down transformer [step-down transformer] is required for other voltage)* The specification shows the maximum system performance. For long-duration tests, system must be de-rated up to 70%. Continuous use at maximum levels may cause failure. Please contact IMV if your system operates
at more than 70%.
* Frequency range values vary according to the sensor and vibration controller.

[Basic Systems] Vibration Test Systems

24Vibration Test Systems Basic Systems

Head expander (flat surface type)
700

750

700

500

100

350

300

Head expanders and cubic fixtures

550 100

300

350

550

750

TBV-350-□-A-L
TBV-350-□-A-H

TBV-550-□-A-L
TBV-550-□-A-H

TBV-750-□-A-L
TBV-750-□-A-H
1000

Where the size of the specimen exceeds the dimensions of the armature a head expander should be used. Generally, the maximum usable
frequency is reduced as the size of specimen increases. The head expander should be selected based on specimen size and maximum test
frequency required. Properties of the standard range of head expanders is shown in the table.

1150

950

900

Head expanders

1000

100

200

900

950

1150

TBV-950-□-A-L
TBV-950-□-A-H

TBV-1150-□-A-L
TBV-1150-□-A-H

Maximum
Mass Frequency

Dimensions

Model

(mm)

(kg)

(Hz)

Specimen
Mounting Screw

Screw Pitch

TBV-350--A-L

350× 350 × t 33

6750

M10 Depth 25

100 mm Pitch

TBV-350--A-H

350× 350 × t 65

11

1500

M10 Depth 25

100 mm Pitch

TBV-550--A-L

550× 550 × t 30

17

300

M10 Depth 25

100 mm Pitch

TBV-550--A-H

550× 550 × t 60

30

600

M10 Depth 25

100 mm Pitch

TBV-750--A-L

750× 750 × t 38

30

200

M10 Depth 25

100 mm Pitch

TBV-750--A-H

750× 750 × t 75

55

400

M10 Depth 25

100 mm Pitch

TBV-950--A-L

950× 950 × t 45

45

150

M10 Depth 25

100 mm Pitch

TBV-950--A-H

950× 950 × t 90

80

300

M10 Depth 25

100 mm Pitch

TBV-1150--A-L

1150× 1150× t 60

90

120

M10 Depth 25

200 mm Pitch

TBV-1150--A-H 1150× 1150× t 120

160

240

M10 Depth 25

200 mm Pitch

Basic systems

Optional Units

100

500

Model names ending with “A” indicate aluminum body.
Add the vibration generator type where “” is shown.

Please contact us for more information.

315

315

400

TBV-315

500400

TBV-400

500

1000

1000

TBV-500
800

630

800

The following option increases the allowable overturning moment of the head
expander.

1200

TBV-1000

Model
TBV-125-□-A
TBV-125-□-M
TBV-315-□-A
TBV-315-□-M
TBV-400-□-A
TBV-400-□-M
TBV-500-□-A
TBV-500-□-M
TBV-630-□-A
TBV-630-□-M
TBV-800-□-A
TBV-800-□-M
TBV-1000-□-A
TBV-1000-□-M
TBV-1200-□-A
TBV-1500-□-A
Model
TBV-125-□-A
TBV-125-□-M
TBV-315-□-A
TBV-315-□-M
TBV-400-□-A
TBV-400-□-M
TBV-500-□-A
TBV-500-□-M
TBV-630-□-A
TBV-630-□-M
TBV-800-□-A
TBV-800-□-M
TBV-1000-□-A
TBV-1000-□-M
TBV-1200-□-A
TBV-1500-□-A

TBV-1200

TBV-800

Maximum
Dimensions Mass Frequency
(mm)
(kg)
(Hz)
0.9
125 × 125
2000
t 20
0.6
315 × 315
t 30

8.5

400 × 400t 30

13

500 × 500t 40

15630 × 630
t 45

5.8
9
10.4
19
12.5

800 × 800
t 70

451000 × 1000
t 110

110

30
78

1200×1200 t 125 180
1500×1500 t 200 300

A-series

i-series

A11

A22

A30

A45

A65

A74

i210

i220

ー

ー

ー

ー

ー

ー

〇

ー

ー

ー

ー

ー

ー

ー

〇

ー

〇

〇

〇

ー

ー

ー

〇

〇

〇

〇

〇

ー

ー

ー

〇

〇

〇

〇

〇

ー

ー

ー

〇

〇

〇

〇

〇

ー

ー

ー

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

ー

〇

〇

〇

〇

〇

〇

〇

ー

〇

〇

〇

〇

〇

〇

〇

ー

ー

〇

〇

〇

〇

〇

〇

ー

ー

ー

〇

〇

〇

〇

〇

ー

ー

ー

ー

ー

〇

〇

〇

ー

ー

1000
600
500
360
350
350
200

*Some models do not support the options above

Vibration generator

Cubic fixture
The specimen can be fastened to the top or the side face of the cubic fixture where testing in each axis is required.
Two types of cubic fixture are available. Type A has fixing holes on each face, Type B has specimen mounting plates which attach to the cubic frame.

Type A

Z

X

J230

J240

J250

J260

C10

K030

K060

K080

K125

K125LS

K200

K350

ー

ー

ー

ー

ー

ー

ー

ー

ー

ー

ー

ー

ー

ー

ー

ー

ー

ー

ー

ー

ー

ー

ー

ー

315 × 315
t 30

8.5

〇

〇

ー

ー

〇

ー

ー

ー

ー

ー

ー

ー

〇

〇

ー

ー

〇

ー

ー

ー

ー

ー

ー

ー

400 × 400
t 30

13

〇

〇

ー

ー

〇

〇

ー

ー

ー

ー

ー

ー

〇

〇

ー

ー

〇

〇

ー

ー

ー

ー

ー

ー

500 × 500
t 40

15

〇

〇

〇

〇

〇

〇

〇

〇

ー

ー

ー

ー

Model

〇

〇

〇

〇

〇

〇

〇

〇

ー

ー

ー

ー

TCJ-A150-

-A

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

ー

ー

TCJ-A150-

-M

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

ー

ー

TCJ-A160-

-A

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

TCJ-A160-

-M

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

TCJ-A200-

-A

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

TCJ-A200-

-M

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

TCJ-A250-

-A

200

ー

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

〇

TCJ-A250-

-M

200

ー

ー

〇

〇

ー

〇

〇

〇

〇

〇

〇

〇

TCJ-A300--A

TCJ-A300--M

630 × 630
t 45

5.8
9
10.4
19
12.5

800 × 800
t 70

451000 × 1000
t 110

110

30
78

1200×1200 t 125 180
1500×1500 t 200 300

1000
600
500
360
350
350

[Basic Systems] Vibration Test Systems

Y

K-series

C-series

Model names ending with “A” indicate aluminum body and “M” indicate magnesium alloy. Add the vibration generator type where “*The data shown refers to the IMV standard range. Custom designs can also be supplied.

25

Additional air spring
Providing additional load support toaccommodate higher specimen &fixture mass.

200
Maximum
Dimensions Mass Frequency
(mm)
(kg)
(Hz)
0.9
125 × 125
2000
t 20
0.6

J-series” is shown.

A head-expander having exceptionally low mass andspecial dual conical shape giving excellent damping.

Air spring

Guide system

Additional guide system
Enabling larger or off-centre specimens
to be tested.

TBV-1500
TBV-630

High-frequency model

Guide system, additional air spring
1200

630

Options for use with vertical tables

1500

1500

Y
X

Z

Y

Y

200 × 200 × 200
250 × 250 × 250
300 × 300 × 300

Cubic fixture
Vibration

Z

Cubic Fixture (Type A)

160 × 160 × 160

Z

X

X

Vibration

150 × 150 × 150

YSpecimen mounting plates

Cubic fixture

Dimensions (mm)Specimen mounting plates
Y

X

X

Z

Z

Type B

Mass (kg)
5.5
4
6.5
4.6
8
5.6
13.5
9.5
20
14

Cubic Fixture (Type B)
Maximum
Frequency (Hz)
2000
2000
1000
650
400

Dimensions (mm)Model
TCJ-B150--A

TCJ-B150--M

TCJ-B160--A

TCJ-B160--M

TCJ-B200--A

TCJ-B200--M

TCJ-B250--A

TCJ-B250--M

TCJ-B300--A

TCJ-B300--M

150 × 150 × 150
160 × 160 × 160
200 × 200 × 200
250 × 250 × 250
300 × 300 × 300

Mass (kg)
3.5
2.5
4
2.8
10
7
20
14
20
14

Model names ending with “A” indicate aluminum body and “M” indicate magnesium alloy. Add the vibration generator type where “Specimen Mounting Plates
Maximum
Frequency (Hz)
2000
2000
2000
1000
600

Model

Mass (kg)TCJ-B150-P-A

1.5

TCJ-B150-P-M

1.1

TCJ-B160-P-A

1.7

TCJ-B160-P-M

1.3

TCJ-B200-P-A

3.5

TCJ-B200-P-M

2.5

TCJ-B250-P-A

4.5

TCJ-B250-P-M

3.2

TCJ-B300-P-A

6.5

TCJ-B300-P-M

4.5” is shown.

[Basic Systems] Vibration Test Systems

26

Vibration Test Systems Basic Systems

ST: Oil Film Type

Slip table

Model
Table Size (mm)Pitch Moment (N・m)
Maximum Load (kg)Vibration Generator
i210
i220
K030
K060
K080

Slip table

TBH-500-□ -A-ST
500 × 500
200
200
Moving Mass* Frequency Thickness
(kg)

(Hz)

(mm)

2500

33

(kg)

(mm)

30

2000

50

-

(Hz)

45

30

2000

60
-

TBH-630-□ -A-ST
630 × 630
400
300
Moving Mass* Frequency Thickness

80-

TBH-800-□ -A-ST
800 × 800
800
400
Moving Mass* Frequency Thickness
(kg)

(Hz)

(mm)

(kg)

(Hz)

-

-

-

-

-

30

100

50

170

65

50

TBH-1000-□ -A-ST
1000 × 1000
1300
500
Moving Mass* Frequency Thickness

2000

115

(mm)

-

Basic systems

Optional Units

It is supported on oil film. Constantly create oil film at reverse side of the table letting the table slide with low friction. Pump oil unit is locatedin the slip table base. Since moving mass is small, it becomes one of the most standard slip table with substantial sales record.

30

1250

50

*The material of slip plate is aluminum alloy. It is possible to change to magnesium. Please contact us for more information.
*□ is the model number of the vibration generator.

A slip table is required for testing a specimen along its horizontal axis, or when a heavy specimen is to be tested.
Slip tables are designed to achieve low friction in the driven axis, while supporting heavy loads and introducing minimal waveform distortion.

TT-L: Hydrostatic Bearing (Low Pressure)/TT-H: Hydrostatic Bearing (High Pressure)
Locating multiple hydrostatic bearing on high rigid base to support slip table. Special purpose designedhydrostatic bearing realizes high load and allowable eccentric moment.

TT-L: Hydrostatic Bearing (Low Pressure)
TBH-500-□ -A-TTL TBH-630-□ -A-TTL TBH-800-□ -A-TTL TBH-1000-□-A-TTL TBH-1200-□ -A-TTL TBH-1500-□ -A-TTL TBH-1800-□ -A-TTL TBH-2000-□ -A-TTL
Model
Table Size (mm)500 × 500
630 × 630
800 × 800
1000 × 1000
1200 × 1200
1500 × 1500
1800 × 1800
2000 × 2000
2200
4600
6500
10000
Pitch Moment (N・m)
1100
2200
10000
1100
Maximum Load (kg)
1000
2000
2000
2500
700
2500
1500
1000
Vibration Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness
(Hz)
(kg)
(Hz)
(kg)
(Hz)
(kg)
(Hz)
(kg)
(Hz)
(kg)
(Hz)
(kg)
(Hz)
(kg)
(Hz)
(mm)
Generator (kg)
(mm)
(mm)
(mm)
(mm)
(mm)
(mm)
(mm)

Type and features of slip table

MS: Simultaneous use of Mechanical Bearing and Oil Film
Employs a combined structure of a high rigid linear bearing and an oil film method which purpose is to improve vibration dumping characteristic.
Model
Table Size (mm)Moment (N・m)
Maximum Load (kg)Vibration Generator
A11
A22
Model
Table Size (mm)Moment (N・m)
Maximum Load (kg)Vibration Generator
A30
A45
A65

TBH-950-□ -A-MS
TBH-1150-□ -A-MS
TBH-750-□ -A-MS
TBH-550-□ -A-MS
550 × 550
750 × 750
950 × 950
1150 × 1150
4600
2200
2200
1100
2000
1000
1500
700
Moving Mass* Frequency Table Thickness Moving Mass* Frequency Table Thickness Moving Mass* Frequency Table Thickness Moving Mass* Frequency Table Thickness
(kg)
(kg)
(kg)
(kg)
(mm)
(mm)
(mm)
(mm)
(Hz)
(Hz)
(Hz)
(Hz)
138
93
55
2000
2000
40
1250
40
40
800
40
140
198
95
58
TBH-750-□ -A-MS
TBH-950-□ -A-MS
TBH-1150-□ -A-MS
TBH-550-□ -A-MS
550 × 550
750 × 750
950 × 950
1150 × 1150
1100
2200
2200
4600
700
1000
1500
2000
Moving Mass* Frequency Table Thickness Moving Mass* Frequency Table Thickness Moving Mass* Frequency Table Thickness Moving Mass* Frequency Table Thickness
(kg)
(kg)
(kg)
(mm)
(mm)
(mm)
(Hz)
(Hz)
(Hz)
(kg)
(mm)
(Hz)
145
203
100
60
2000
40
2000
40
1250
40
800
40
108
153
210
68

*The weight is referring the plate made of aluminum.
*□ is the model number of the vibration generator.

MB: Mechanical Bearing
Mechanical bearing employs the linear motion guide which incorporates a component with a linear rolling motion into practical use. It significantly
contributes to high performance of table which are high-rigidity, high load and long stroke motion. Another strong feature of the mechanical bearing
is easy to operate. Since it is light weighted and no need for a hydraulic unit.
Model
Table Size (mm)Moment (N・m)
Maximum Load (kg)Vibration Generator
A11
A22
Model
Table Size (mm)Moment (N・m)
Maximum Load (kg)Vibration Generator
A30
A45
A65

TBH-550-□ -A-MB
550 × 550
9300
1000
Moving Mass* Frequency Table Thickness
(kg)
(mm)
(Hz)
46
47

2000

TBH-950-□ -A-MB
TBH-1150-□ -A-MB
TBH-550-□ -A-MB
TBH-750-□ -A-MB
550 × 550
750 × 750
950 × 950
1150 × 1150
12700
19700
51500
9300
2000
2000
2000
1000
Moving Mass* Frequency Table Thickness Moving Mass* Frequency Table Thickness Moving Mass* Frequency Table Thickness Moving Mass* Frequency Table Thickness
(kg)
(mm)
(kg)
(Hz)
(Hz)
(mm)
(kg)
(Hz)
(mm)
(kg)
(Hz)
(mm)
47
75
151
106
2000
2000
2000
2000
30
30
30
40
54
87
114
160
2000*1
2000*1
2000*1
2000*1

1* Above 1600 Hz, the force rolls-off at a rate of -6db/oct.
*The weight is referring the plate made of aluminum.
*□ is the model number of the vibration generator.
*Please contact us about the table size over 1150 × 1300.

27

30[Basic Systems] Vibration Test Systems

i210
i220
J230
J240
J250
J260

40
43
50

2000

30

1600

70

40

53
55
63

2000
30
1600

85

40

75
78
85

1600

30

118

1250

115

105
108

40

30
280

1000

900

50

450

800

50

650

600

50

800

500

50

40

155

*The material of slip plate is aluminum alloy. It is possible to change to magnesium. Please contact us for more information. *□ is the model number of the vibration generator.
TBH-550-□ -A-TTL TBH-750-□ -A-TTL TBH-950-□ -A-TTL
Model
Table Size (mm)550 × 550
750 × 750
950 × 950
Pitch Moment (N・m)
1100
2200
2200
Maximum Load (kg)
1000
1500
1500
Vibration Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness
(Hz)
(kg)
(Hz)
(kg)
(Hz)
Generator (kg)
(mm)
(mm)
(mm)
A11
A22
A30
A45
A65

52
53
64

2000

30

89

2000*

-

-

78

-

-

-

1000

30

105
1600

30

115

*Above 1600 Hz, the force rolls-off at a rate of -6db/oct.
*□ is the model number of the vibration generator.

TT-H: Hydrostatic Bearing (High Pressure)
TBH-500-□ -A-TTH TBH-630-□ -A-TTH TBH-800-□ -A-TTH TBH-1000-□ -A-TTH TBH-1200-□ -A-TTH TBH-1500-□ -A-TTH TBH-1800-□ -A-TTH TBH-2000-□ -A-TTH
Model
500 × 500
630 × 630
800 × 800
1000 × 1000
1200 × 1200
1500 × 1500
1800 × 1800
2000 × 2000
Table Size (mm)
4000
7700
7700
16000
22000
48000
48000
Pitch Moment (N・m)
4000
Maximum Load (kg)
1600
2000
800
2000
2000
3000
3000
1200
Vibration Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness
(kg)
(Hz)
(Hz)
(mm)
(kg)
(Hz)
(mm)
(mm)
(kg)
(Hz)
(Hz)
(kg)
(Hz)
(kg)
(Hz)
(kg)
(Hz)
(kg)
Generator (kg)
(mm)
(mm)
(mm)
(mm)
(mm)
i210
i220
J230
J240
J250
J260
K030
K060
K080
K125
K125LS

60
63
68
70

1600

83
68
93
78
103
113

70
83
88
90

2000

50
2000
1600

1600

100
88
108
95
118
128

115
118
125
130

2000

50
2000
1600

143
123
145
133
155
170

165
168
175
178

2000

1250

188
50

2000
1250

173
193
180
205
220

1250

1000
50

280

900

50

450

800

50

650

600

50

800

500

50

1250
1000

*The material of slip plate is aluminum alloy. It is possible to change to magnesium. Please contact us for more information. *□ is the model number of the vibration generator.
TBH-550-□ -A-TTH TBH-750-□ -A-TTH TBH-950-□ -A-TTH
Model
Table Size (mm)550 × 550
750 × 750
950 × 950
Pitch Moment (N・m)
4000
7700
7700
Maximum Load (kg)
1200
2000
2000
Vibration Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness Moving Mass* Frequency Thickness
(Hz)
(kg)
(Hz)
(kg)
(Hz)
Generator (kg)
(mm)
(mm)
(mm)
A11
A22
A30
A45
A65

52
53
66

2000
2000*

30

-

-

78
89

-

-

-

1000

30

105
1600

30

115

*Above 1600 Hz, the force rolls-off at a rate of -6db/oct.
*□ is the model number of the vibration generator.

[Basic Systems] Vibration Test Systems

28Vibration Test Systems Basic Systems

Basic systems

Optional Units
Slip table

Option for slip table(5) TH: Hydrostatic Bearing & Oil Film
(A-series Only)

Allowable eccentric moment verification test

Slip table for A-series provides thefollowing features with a newly developedhydrostatic and hydraulic bearing andnew structure.

Vibration generator Driver bar

Test weight (1500 kg)
Vibration generator

Slip plate

1. Rotation reduction gearing

2. Motor drive rotation

A reduction gearing unit enabling easier reconfiguration of thePowered rotation of the vibration generator.

vibration generator.

The motor-driven rotation can be optionally installed on systems*i210 doesn’t have this option.

equipped with reduction gearing.

3. Duct

4. Drive bar adapter with diagonal bolt accessA newly developed duct is provided as standard.

Method of fastening drive bar to a slip table was simplified by reflecting

No operation needed for direction change between vertical and horizontal.

customers feedback.

Space behind the shaker is minimised.

Usability is improved and easier torque management of bolts is realized.

[Features]
Oil film● High moment resistance● Low cross-axis acceleration

Watch theYouTube video● Low distortion● No requirement for a separate

hydraulic unit
● Good work efficacy

Model
Table Size (mm)Thickness (mm)Pitch Moment (N・m)
Maximum Load (kg)Vibration Generator

TBH-550TH
550 × 550
50
6000
1500
Moving Mass*
Frequency

A11
A22
A30
A45
A65
A74

TBH-750TH
750 × 750
50
66000
9000
Moving Mass*
Frequency

(kg)

(Hz)

(kg)

85

2000

159

(Hz)

TBH-950TH
950 × 950
50
85000
9000
Moving Mass*
Frequency
(kg)

ー

180

(Hz)

215
2000

ー

Table

Oil tank● Smaller system installation space

TBH-1150TH
1150 × 1150
50
85000
9000
Moving Mass*
Frequency
(kg)

(Hz)

298
1250

236

TBH-1450TH
1450 × 1450
50
1980009000
Moving Mass*
Frequency
(kg)

452
800

318

(Hz)

500
473

* Standard for MB/MS*The weight is referring the plate made of aluminum.

(6) T-Film bearing range

Duct

The T-Film bearing from Team Corporation is probably the most advanced design of linear bearing available
to the vibration-test industry.
The slip table employs a number of bearings, each consisting of a U.S. patented bearing element andhydro-static oil film.
T-Film bearings provide excellent vibration waveform linearity and are considered to be the best solution for
the aerospace industry and research establishments.

29[Basic Systems] Vibration Test Systems[Basic Systems] Vibration Test Systems

30

Vibration Test Systems Basic Systems

Optional Units

Fixture, Vibration Isolation, Reinforcement

Sound-proof enclosure, Cooling ducting, Launcher, System monitor

Basic systems

Optional Units
FixtureSound-proof enclosure

Cooling ducting

IMV has a range of fixtures, such as cube and ‘L’-shaped types, to suit most applications.
Customised fixtures are supplied, designed and analysed using finite-element modeling to ensure best performance.

A sound-proof enclosure for the cooling blower reduces noise
in installations where the blower cannot be located outside thework area.

The standard arrangement for air-cooled systems is to install theblower inside the work area. Ducting the input air from outsideeliminates the changes in ambient pressure and temperaturecaused by the cooling air flow.

Vibration Isolation
Additional isolation mounts are available to reduce the effects of vibration on the floor and adjacent equipment.
insideInsulation pad

Air spring

These are simple to install by placing

Air springs placed under eachunder the vibration generator.

corner of the frame support theLauncher

System monitor

Test file will be automatically generated just on selection of thetest condition defined by the test standard. Then, the test canbe carried out just by pressing the start button.

Condition of “vibration generator, amplifier test proceeding,vibration generator and are an
excellent way to isolate vibration above about 5 Hz.

specimen status” can be observed on the PC or tablet by either wired or
wireless LAN. Solution will be seen on the Web browser on occurrenceof any error. Installation of additional software is not necessary to
the PC nor tablet.

Reinforcement
Home screen

Home screen (error)

Eco screen

Camera screen

Load spreader base
The weight of the vibration generator
can be distributed over a larger area
where such load is acceptable.
In-built "Quick Help"provides guidance oneach operation.

31[Basic Systems] Vibration Test Systems[Basic Systems] Vibration Test Systems

32

Multi-axis Systems

Vibration Test Systems

Multi-axis systems
2-Axis Changeover Systems
3-Axis Changeover Systems
2-Axis Simultaneous Systems
3-Axis Simultaneous Systems
6 Degrees of Freedom Systems

DC-series
TC-series
DS-series
TS-series
TTS-series

P.35
P.36
P.37
P.38
P.39

Reduced test time

Reproduction of failure modes

ICCU (Integrated Cross Coupling Bearing Unit)

Highly accurate multi-axis multi-point control

Testing in three-axis simultaneously instead of sequentiallyThree-axis simultaneous vibration testing reproduces

ICCU is a patented technology developed by

High-precision multi-axis, multi-point control which can compensate

can reduce overall test time by eliminating the time taken toreal environments more accurately than sequential

IMV for three-axis simultaneous excitations.

for rotational moments generated by the specimen and fixture andreconfigure the system, and time to run tests in each axis.

single-axis tests can.

accurately reproduce the vibration measured in the field.

Three-axis table
Two hours

Two hours

Two hours=Total six hours

Pressure receiver
Bearing casing(ex)
Test time reduced to one-third, or less

33

[Multi-axis systems] Vibration Test Systems=Total Two hours

A single-axis system does notachieve realistic simulation ofreal-world vibration.

Simultaneous three-axis testing reproduces
the stress placed on specimens by complex
resonances which may not be detected insingle-axis testing.

Preload bolt

Oil film part

[Multi-axis systems] Vibration Test Systems

34

Vibration Test Systems Multi-axis Systems

DC-series

TC-series

2-Axis Changeover Systems

3-Axis Changeover Systems

Multi-axis Systems

DC-2000-5H

TC-3000-6H

Specifications
System Model
Table Size (mm)Specifications
DC-1000-4H

DC-1000-6H

400

600

Sine (kN)
RatedForce Random (kN)
Shock (kN)Maximum Velocity (m/s)
SystemSpecifications Maximum Displacement (mmp-p)
Armature Mass (kg)Maximum Horizontal (Hz)Frequency Vertical (Hz)Maximum Load (kg)Power Requirements (kVA)

Primary Cooling Water (ℓ/min)[Multi-axis systems] Vibration Test Systems

800

29.4

14.7

14.7

14.7

14.7

29.4

29.4

29.4

29.4

44.1

44.1

1

1

1

1

1

1

1

0.9

4.9
75
51

4.9
54
51

4.9
32
51

9.8

150
51

9.8
81
51

9.8
67
51

9.8
28
51

14.7
196
1

51

14.7
140
1

51

90

130

180

300

130

240

290

680

150

210

1000

1000

700

500

800

800

500

350

800

25

25

800
100
–

700
200
25
–

1000

1500

29.4

29.4

44.1

44.1

14.7
91

600

49

350
200
25
–

800
200
43
–

500
300
43
–

800

1000

1500

49

49

43
–

74

0.9

0.9

1

1

204

163

59

385

320

620

140

240

300

820

160

500

350

1000

800

500

350

1000

52

75

73

93

500
52
–

250
500
–

800
300
195

700
300
75

195

1500

74

37

0.9

350

–

92.5

58.8

51

350
500
73

190

51

250
700
190

51

800
300
230

37

268

30.8
102

Armature Mass (kg)

30.8
75

Maximum Load (kg)Primary Cooling Water (ℓ/min)
System Model
Table Size (mm)Sine (kN)

RatedForce Random (kN)
Shock (kN)Maximum Acceleration (m/s2)

0.9

0.9

230

600

820

800

500

350

Maximum Horizontal (Hz)Frequency Vertical (Hz)91Power Requirements (kVA)

51

700
300
93

230

51

350
500
91

225

51

250
700
225

Maximum Velocity (m/s)
SystemSpecifications Maximum Displacement (mmp-p)
Armature Mass (kg)Maximum Load (kg)Primary Cooling Water (ℓ/min)

TC-1000-8H TC-1000-10M TC-2000-5H
800

1000

500

TC-2000-8M TC-2000-10M TC-2000-15M TC-3000-5H
800

1000

1500

500

TC-3000-8M
800

9.8

9.8

9.8

9.8

19.6

19.6

19.6

19.6

29.4

29.4

14.7

14.7

14.7

14.7

29.4

29.4

29.4

29.4

44.1

44.1

1

1

1

1

1

1

1

0.9

4.9
98
51

4.9
65
51

4.9
42
51

4.9
33
51

9.8

163
51

9.8
98
51

9.8

9.8

65

30

51

51

14.7
196
1

51

14.7
113
1

51

100

150

230

290

120

200

300

640

150

260

1000

1000

700

500

800

800

500

350

800

800

27

27

Power Requirements (kVA)

92.5

350

51

1000

Maximum Velocity (m/s)
SystemSpecifications Maximum Displacement (mmp-p)

600

52

300

DC-6000-8H DC-6000-10M DC-6000-15M
800

Maximum Acceleration (m/s2)

TC-1000-6H

400

800

58.8

47

51

–

Sine (kN)
RatedForce Random (kN)
Shock (kN)TC-1000-4H

1000

61.7

24.5

51

–

52

System Model
Table Size (mm)Maximum Horizontal (Hz)Frequency Vertical (Hz)

61.7

1

51

43

200

500

61.7

24.5

1

500

800

61.7

29.4
73.5

600

250

49

29.4

1

500

DC-5000-8H DC-5000-10M DC-5000-15M DC-6000-6H

14.7

73.5

350

*Depending on the reference PSD or other operating conditions such as the specimen, one part of the controlled response may deviate from the reference PSD. Please contact us for more information.

35

DC-3000-8M

29.4

DC-3000-10M DC-3000-15M DC-5000-6H

Maximum Acceleration (m/s2)

500

19.6

–

Rated
Force Random (kN)
Shock (kN)

1500

19.6

100

Sine (kN)

1000

19.6

Power Requirements (kVA)

System Model
Table Size (mm)

800

19.6

1000

Primary Cooling Water (ℓ/min)

DC-2000-8M DC-2000-10M DC-2000-15M DC-3000-5H

9.8

Maximum Horizontal (Hz)Frequency Vertical (Hz)Maximum Load (kg)

500

9.8

51

Armature Mass (kg)

1000

9.8

108

Maximum Velocity (m/s)
SystemSpecifications Maximum Displacement (mmp-p)

800

9.8
4.9

Maximum Acceleration (m/s2)

DC-1000-8H DC-1000-10M DC-2000-5H

100
–

800
100
–

700
200
27
–

TC-3000-10M TC-3000-15M TC-5000-6H
1000

1500

29.4

29.4

44.1

44.1

14.7
73

600

49

350
200
27
–

800
200
43
–

500
300
43
–

800

1000

1500

49

49

500
43

0.9

0.9

1

1

37

342

400

680

160

220

310

730

180

500

350

1000

800

500

350

1000

52

77

75

93

500
52
–

500
–

300
195

300
77

195

1500

74

67

700

1000

74

158

800

800

92.5

222

250

TC-6000-8H TC-6000-10M TC-6000-15M

92.5

58.8

0.9

350

–

58.8

306

51

52

61.7

43

1

–

300

61.7

24.5

73.5

600

52

61.7

24.5

51

–

200

500

61.7

29.4

51

43

–

1

51

500

800

49

29.4

1

250

TC-5000-8H TC-5000-10M TC-5000-15M TC-6000-6H

14.7

73.5

350

51

350
500
75

190

51

250
700
190

51

800
300
230

37

257

30.8
199

30.8
84

0.9

0.9

240

310

730

800

500

350

51

700
300
93

230

51

350
500
91

225

51

250
700
91

225

*Depending on the reference PSD or other operating conditions such as the specimen, one part of the controlled response may deviate from the reference PSD. Please contact us for more information.

[Multi-axis systems] Vibration Test Systems

36Vibration Test Systems Multi-axis Systems

DS-series

TS-series

2-Axis Simultaneous Systems

3-Axis Simultaneous Systems

Multi-axis Systems

DS-2000-4H

TS-1000-4H

Specifications
System Model
Table Size (mm)Specifications
DS-1000-4H

DS-1000-6H

400

600

Sine (kN)
RatedForce Random (kN)
Shock (kN)Maximum Velocity (m/s)
SystemSpecifications Maximum Displacement (mmp-p)
Armature Mass (kg)Maximum Horizontal (Hz)Frequency Vertical (Hz)Maximum Load (kg)Power Requirements (kVA)

Primary Cooling Water (ℓ/min)[Multi-axis systems] Vibration Test Systems

800

29.4

14.7

14.7

14.7

14.7

29.4

29.4

29.4

29.4

44.1

44.1

1

1

1

1

1

1

1

0.9

4.9
75
51

4.9
54
51

4.9
32
51

9.8

150
51

9.8
81
51

9.8
67
51

9.8
28
51

14.7
196
1

51

14.7
140
1

51

90

130

180

300

130

240

290

680

150

210

1000

1000

700

500

800

800

500

350

800

30

30

800
100
–

700
200
30
–

1000

1500

29.4

29.4

44.1

44.1

14.7
91

600

49

350
200
30
–

800
200
66
–

500
300
66
–

800

1000

1500

49

49

66
–

74

0.9

0.9

1

1

204

163

59

385

320

620

140

240

300

820

160

500

350

1000

800

500

350

1000

76

104

106

126

500
76
–

250
500
–

800
300
370

700
300
104
370

1500

74

37

0.9

350

–

92.5

58.8

51

350
500
106
360

51

250
700
360

51

800
300
440

37

268

30.8
102

Armature Mass (kg)

30.8
75

Maximum Load (kg)Primary Cooling Water (ℓ/min)
System Model
Table Size (mm)Sine (kN)

RatedForce Random (kN)
Shock (kN)Maximum Acceleration (m/s2)

0.9

0.9

230

600

820

800

500

350

Maximum Horizontal (Hz)Frequency Vertical (Hz)128

Power Requirements (kVA)

51

700
300
126
440

51

350
500
128
430

800

51

250
700
430

Maximum Velocity (m/s)
SystemSpecifications Maximum Displacement (mmp-p)
Armature Mass (kg)Maximum Load (kg)Primary Cooling Water (ℓ/min)

TS-1000-10M TS-2000-5H
1000

500

TS-2000-8M TS-2000-10M TS-2000-15M TS-3000-5H
800

1000

1500

500

TS-3000-8M
800

9.8

9.8

9.8

9.8

19.6

19.6

19.6

19.6

29.4

29.4

14.7

14.7

14.7

14.7

29.4

29.4

29.4

29.4

44.1

44.1

1

1

1

1

1

1

1

0.9

4.9
98
51

4.9
65
51

4.9
42
51

4.9
33
51

9.8

163
51

9.8
98
51

9.8

9.8

65

30

51

51

14.7
196
1

51

14.7
113
1

51

100

150

230

290

120

200

300

640

150

260

1000

1000

700

500

800

800

500

350

800

800

41

41

Power Requirements (kVA)

92.5

350

51

1000

Maximum Velocity (m/s)
SystemSpecifications Maximum Displacement (mmp-p)

TS-1000-8H

600

76

300

DS-6000-8H DS-6000-10M DS-6000-15M
800

Maximum Acceleration (m/s2)

TS-1000-6H

400

800

58.8

47

51

–

Sine (kN)
RatedForce Random (kN)
Shock (kN)

TS-1000-4H

1000

61.7

24.5

51

–

76

System Model
Table Size (mm)Maximum Horizontal (Hz)Frequency Vertical (Hz)

61.7

1

51

66

200

500

61.7

24.5

1

500

800

61.7

29.4
73.5

600

250

49

29.4

1

500

DS-5000-8H DS-5000-10M DS-5000-15M DS-6000-6H

14.7

73.5

350

*Depending on the reference PSD or other operating conditions such as the specimen, one part of the controlled response may deviate from the reference PSD. Please contact us for more information.

37

DS-3000-8M

29.4

DS-3000-10M DS-3000-15M DS-5000-6H

Maximum Acceleration (m/s2)

500

19.6

–

Rated
Force Random (kN)
Shock (kN)

1500

19.6

100

Sine (kN)

1000

19.6

Power Requirements (kVA)

System Model
Table Size (mm)

800

19.6

1000

Primary Cooling Water (ℓ/min)

DS-2000-8M DS-2000-10M DS-2000-15M DS-3000-5H

9.8

Maximum Horizontal (Hz)Frequency Vertical (Hz)Maximum Load (kg)

500

9.8

51

Armature Mass (kg)

1000

9.8

108

Maximum Velocity (m/s)
SystemSpecifications Maximum Displacement (mmp-p)

800

9.8
4.9

Maximum Acceleration (m/s2)

DS-1000-8H DS-1000-10M DS-2000-5H

100
–

800
100
–

700
200
41
–

TS-3000-10M TS-3000-15M TS-5000-6H
1000

1500

29.4

29.4

44.1

44.1

14.7
73

600

49

350
200
41
–

800
200
94
–

500
300
94
–

800

1000

1500

49

49

500
94

0.9

0.9

1

1

37

342

400

680

160

220

310

730

180

500

350

1000

800

500

350

1000

110

149

153

182

500
110
–

500
–

300
550

300
149
550

1500

74

67

700

1000

74

158

800

800

92.5

222

250

TS-6000-8H TS-6000-10M TS-6000-15M

92.5

58.8

0.9

350

–

58.8

306

51

110

61.7

43

1

–

300

61.7

24.5

73.5

600

110

61.7

24.5

51

–

200

500

61.7

29.4

51

94

–

1

51

500

800

49

29.4

1

250

TS-5000-8H TS-5000-10M TS-5000-15M TS-6000-6H

14.7

73.5

350

51

350
500
153
530

51

250
700
530

51

800
300
650

37

257

30.8
199

30.8
84

0.9

0.9

240

310

730

800

500

350

51

700
300
182
650

51

350
500
182
640

51

250
700
186
640

*Depending on the reference PSD or other operating conditions such as the specimen, one part of the controlled response may deviate from the reference PSD. Please contact us for more information.

[Multi-axis systems] Vibration Test Systems

38

Vibration Test Systems Multi-axis Systems

TTS-series

6 Degrees of Freedom Systems

Ride comfort evaluation system
The addition of rotational motion to a three-axis system enables 6 degree-of freedom testing, as is required for vehicle seat evaluation, forexample.

Excitation Direction

X axis

Y axisRated Force (kN)

3.9

7.8

16

Maximum Displacement (mmp-p)

150

150

100

Frequency Range (Hz)

1-100

Table Size (mm)Vibration Generator

Z axis1800×1800
1

2

4Multi-axis Systems(Per 1 system)

Check the movie
on YouTube

Large-scale 6 DOF vibration test system
A total of 10 vibration generators (6 vertical and 4 horizontal) and a 4000 mm by 3500 mm large size table allow the simultaneous 6 DOF
vibration testing. This versatile platform is ideal for testing large items such as railway carriage components.
Excitation Direction
Rated Force (kN)

X axis

Y axisZ axis80

48

96

Maximum Displacement (mmp-p)

51

Frequency Range (Hz)

2-150

Table Size (mm)Vibration Generator

4000×3500
22

6(Per 1 system)

6 degrees of freedom systems
At least 6 vibration generators are located in 3D space withintegrated control are employed to create or simulate 6 degrees of
freedom motion (3 translation degrees of freedom and 3 rotating
degrees).
In addition to X, Y, Z axis motion, rotational motion, Roll, Pitch and
Yaw is also available utilising spherical bearings.
Using electro dynamic vibration generators, IMV systems canreproduce waveforms which have components in a wide frequency
range with a high degree of accuracy. System maintenance iseasy. Systems comprise at least six vibration generators to act
along orthogonal axes and also to generate the roll, pitch and yaw
components of vibration. The spherical bearings are used toallow such rotational motions. By using electrodynamic vibration
generators the system can operate over a wide frequency range
with a high degree of accuracy. No preparatory operation innessessary.
39[Multi-axis systems] Vibration Test Systems

6 DOF simultaneous squeak and rattle test system for vehicle seatsAir-cooled vibration test system for the evaluation of squeak and rattle noise from an instrument panel or other car interior assemblies.
Z

Yaw

Excitation Direction

X axis

Y axisZ axisRated Force (N)

1600

1600

3200

Maximum Displacement (mmp-p)

Y
Pitch

X
Roll

30

Frequency Range (Hz)

5-100

Table Size (mm)Vibration Generator

1500×3500
2

2

4(Per 1 system)[Multi-axis systems] Vibration Test Systems

40Vibration Test Systems Environmental Test Systems

Chamber for Vertical Excitation

Inner pressure regulator:Reduce
internal pressure fluctuation causedby vibration (Standard equipment)

Model : Syn-3HA-40-V
Internal dimensions

W1000×D1000×H1100 mm

Temperature range-40 ℃ - +150 ℃

Humidity range

20 % - 95 %RH

Temperature pull down time

+20 ℃ => -40 ℃ In 60 minutes (Curve gradient)

Temperature heat up time

-40 ℃ => +150 ℃ In 90 minutes (Curve gradient)

Environmental Test Systems

Docking image of combined systems

Chamber

Chamber

Coupling shaft

Vibration Test Systems

Environmental
Test Systems

Vibration generator

Direct coupling

Connection with a coupling shaft

Manufactured products can be exposed to both thermal and mechanical stresses.

Model : Syn-6HW-30-V

These should not be considered separately, as the effects may be linked.

Internal dimensions

W1800×D1900×H1500 mm

Temperature range-30 ℃ - +80 ℃

Humidity range

30 % - 95 %RH

Temperature pull down time

+45 ℃ => -30 ℃ In 35 minutes (Curve gradient)

Temperature heat up time

-30 ℃ => +80 ℃ In 25 minutes (Curve gradient)

IMV can supply vibration-test systems combined with climatic chambers to provide complete vibration,
temperature and humidity environmental testing. These systems can be custom-designed to meet yourapplication.

41

Vibration generator[Environmental Test Systems] Vibration Test Systems[Environmental Test Systems] Vibration Test Systems

42Vibration Test Systems Environmental Test Systems

Chamber for both Vertical and Horizontal Excitation

Option for chambers for both vertical and horizontal excitation

Horizontal slip table combined vibration test system.

Optional crane

Optional crane and observation door

chamber combined test for both vertical and horizontal axis.

Adding a dedicated crane provides safe and simple

The vertical base can be attached and detached

Combining a rail support for horizontal move and a lift support for vertical move,loading and unloading of test specimens.

using the optional crane with the head expander
straying mounted on the vibration generator.

In addition, operator-friendly environment means

such as observation door and body suspension
automatic adjustment mechanism etc are equipped.

Environmental Test Systems

Vertical use

Side window

Cable bear

With a side window, chamber combination docking isCables and water pipes put together with the cablepossible with the specimen attached to the vibration

bear provide safe work environment.

generator for vertical excitation use.
Horizontal use

Rail and lift support

Model : Syn-3HA-70-VH
Internal dimensions

W1000×D1000×H1000 mm

Temperature range-70 ℃ - +180 ℃

Humidity range

20 % - 98 %RH

Temperature pull down time

1 ℃/minutes or more (Curve gradient)

Temperature heat up time

2 ℃/minutes or more (Curve gradient)

Horizontal use
Vertical use

43[Environmental Test Systems] Vibration Test Systems

Check the movie
on YouTube[Environmental Test Systems] Vibration Test Systems

44Vibration Test Systems Environmental Test Systems

Chamber for Multi-Axis Excitation
Temperature, humidity chamber for multi-axis vibration test system.

Total test time can be reduced by eliminating conventionally needed time to reconfigure for testing each axis.

Prefabricated Chamber for Large Specimens
Large-sized specimen can be tested by a chamber combined test in both vertical and horizontal axis.

2-axisModel : Syn-4HA-40-M
W1200×D1200×H1000 mm

Temperature range-40 ℃ - +150 ℃

Humidity range

20 % - 98 %RH

Temperature pull down time

+20 ℃ => -40 ℃ In 80 minutes (Load condition:combined + aluminum 60 kg)

Temperature heat up time

-40 ℃ => +150 ℃ In 80 minutes (Load condition:combined + aluminum 60 kg)

Environmental Test Systems

Internal dimensions

Model : Syn-6HA-40-VH

3-axisModel : Syn-3HA-40-M
Internal dimensions

W1000×D1000×H1000 mm

Temperature range-70 ℃ - +180 ℃

Humidity range

20 % - 98 %RH

Temperature pull down time

+20 ℃ => -70 ℃ In 40 minutes (Curve gradient)

Temperature heat up time

-70 ℃ => +180 ℃ In 40 minutes (Curve gradient)Internal dimensions

W4000×D2000×H2500 mm

Temperature range-40 ℃ - +120 ℃

Humidity range

30 % - 95 %RH

Temperature pull down time

+20 ℃ => -40 ℃ In 120 minutes (Curve gradient)

Temperature heat up time

-40 ℃ => +150 ℃ In 150 minutes (Curve gradient)

Docking image of combined systems

ChamberVibration generator for horizontal excitation

Vibration generator for vertical excitation

45[Environmental Test Systems] Vibration Test Systems[Environmental Test Systems] Vibration Test Systems

46Vibration Test Systems Environmental Test Systems

Climatic Chamber Controllers

OptionMany options are available to make easier such operation as different door positioning and observation window location.

Chamber controller
8.4-inch touch panel
Clear display of information and buttons on the
8.4-inch touch-panel.

Observation door

Up to 100 programs can be stored in memory.
Selecting the program to be used is straightforward.

Infrared irradiation

An observation door enables monitoring of the test
specimen.

Car instrumental panel, door, bumper,or body sections can be tested.

Ceiling observation window
A ceiling observation window allows full visibilityof the vibration table and test specimen with noblind-spots.

Environmental Test Systems

Program editable in PC
Setting-up a test can be performed using a spreadsheet.
Programs use the standard CSV file format.

Program selection

Program confirmation
Progress of the test is confirmed by tabular andgraphical displays.

Safety measures for fuel cell tests

Forced exhaust device

CO2 automatic extinguish device (back)Gas detector(H2, CO)

System monitor (option)

Integrated control system (option)

Connected to system monitor by Ethernet.
The test status of both vibration generator andchamber can be monitored remotely.

Vibration generator, chamber and other equipments
can be controlled at one place.

Rotary handle to lockSpecimentemperaturedetection

Vibration generator

Integrated control

Chamber

47[Environmental Test Systems] Vibration Test Systems

Other equipments

Scattering prevention panel[Environmental Test Systems] Vibration Test Systems

48Vibration Test Systems Vibration Controller

Vibration Controller

K2+

System Composition

Sensor

BNC Cable

Amplifier

Up to two modules can be added as an option
to the standard cabinet.

Vibration Generator

4 channel input and 4 channel output module are standard.

Sensor Cable

With built-in charge amplifier, IEPE (ICP) power supply and
TEDS connectivity, an external signal conditioner is not required.

Oscilloscope/FFT
BNC Cable
Datalogger

The monitor output provides a conditioned version of
the acceleration signal which can be monitored byexternal equipment, e.g. oscilloscope or datalogger.

【Backside of K2+】PC

LAN Cable

4-channel Input and4-channel Output Module (standard)
4Main Enclosure
Number of Slots

3

AC PowerSingle-phase AC, 100 V-240 V

External
Communication

Contact I/O

Ambient
Conditions

0-40°
C, below 85% RH,
non-condensing

Dimensions

W430 × H100 × D383 mm

Mass

Approximately 7.0 kg(auto-selected)(not including projecting parts)

Common hardware supports all types of vibration test.

Input Section(for emergency stop)

product development and series production. The K2+ hardware and software has been developed
in-house, giving IMV full design control of this important part of a vibration system.
The K2+ system offers enhanced functions and operability based on the most advanced technologies
and incorporating feedback from our customers.

49[Vibration Controller] K2+• One LAN port Gigabyte ethernet port and Gigabyte ethernet cable• Microsoft Windows 10 Pro (64 bit) or Windows 10 IoT Enterprise (64 bit)*.
• Memory required (for 8 input channels)
4 GB or more
• DVD-ROM Drive (required for installation)• One USB port (necessary for protect device)• Resolution of monitor and PC required 1280 x 1024 or more
* Recommended OS and memory vary depending on software, options,
number of I/O channels, etc.

*Please note that optional software “Program K2+” used forvibration controller K2+ also requires Japanese government
export license (E/L).

Output Section

Minimum Specifications of PC

The K2+ controller provides the precision and repeatability required to test with confidence during both8-channel Input Module (option)

8
Number of Channels
Input Connector
BNC
Charge, Voltage (Single-ended/Differential), IEPE
Input Signal
1.0 mV/pC or 10 mV/pC
Charge Amplifier Sensitivity
0.32 Hz
Charge Amplifier Cut-off
Charge Input ±10000 pC or ±1000 pC
Maximum Input
Voltage Input ±10000 mV
IEPE input±10000 mV
Sampling Frequency
102.4 kHz maximum
Voltage Input Coupling
AC or DCAC Coupling Cut-off
0.1 HzCCLD Amplifier (IEPE)+24 VDC, 3.5 mATEDS (IEPE)
Version 0.9, Version 1.0
TypeΔΣ
A/D Converter
Resolution
32 bitDynamic range 121 dB
Pass-band ripple: +0.001, -0.06 dB, Stop-band attenuation: 85 dB
Digital filter
Number of Channels
4 (One channel is reserved for drive output)
Output Connector
BNC
Output Signal
Voltage
Maximum Output±10000 mV
Sampling Frequency
102.4 kHz maximum
D/A Converter
Type
ΔΣ
Resolution
32 bitDynamic range 120 dB
Pass-band ripple: ±0.005 dB
Digital filter
Stop-band attenuation: 100 dB[Vibration Controller] K2+

Vibration Controller

Vibration
Controller K2+■ Hardware Specifications

50

Vibration Test Systems Vibration Controller

Intuitive Operation
Launcher

Test standard* Standard for A-series and K-series

Optional Software

Scheduler

Non-Gaussian

Random test application that can reproduce accurate vibrations closer to the real environment
Actual vibrations such as transport vibrations are often non-Gaussian random vibrations in which large peaks are
generated. The K2 Non-Gaussian application accurately reproduces real-world vibration having a non-Gaussian
amplitude distribution.
Effectiveness of non-Gaussian random vibration testing
Easily-recognised icons are used
for file management.

A test file will be automatically generated uponselection of the test conditions defined by the test
standards.
*Please refer to the following for the test standards.

Several different tests types are executed
automatically and in sequence according to thepre-defined schedule.

Optional Test Standard
The main test standards stored in the Launcher software (Ver 22.2.0.0 onwards) are as follows as of December 2022. The Launcher software is an option for the K2.
JIS C 60068

Sine, Random, ShockJIS D 1601

Automotive parts simulated long-life test

JIS E 4031

Railway vehicle parts functional test, Simulated long-life test

JIS Z 0200

Transportation test

JIS Z 0232

Transportation test (Random)

JASO D 014

Automotive parts functional test

ASTM

Transportation testUN

Lithium-ion battery test recommendated by UN

ISO16750

Automotive parts test

ISO12405

Electric vehicle

IEC60068

Sine, Random, Shock

IEC62660

Random, Shock for secondary lithium-ion cells of electric vehicles

ISTA

Transportation test

IEC61373

Railway vehicle parts functional test

ISO13355

Transportation test (Random)

ISO4180

Transportation test

ISO19453

Electric vehicle parts

JIS E 3014

Parts for railway signal

EIA 364

Electrical connector performance test

K2 DataViewer*Version upgrade will incur an additional cost.

K2 Related Products

Measured waveform ofcargo tranporation vibration

The figures on the right explain the effect of using
Gaussian Random and Non-Gaussian Random control
in a vibration test based on the replication of vibration
measured while driving on a highway.
The PSD and rms value of the three waveforms are thesame.
It is clear that the vibration reproduced by“K2/Non-Gaussian” is closer to the real measured
vibration than the vibration reproduced by“Standard Random’’.
Generally, the greater the acceleration, the greater the
impact on the product, but “K2/Non-Gaussian” canaccurately reproduce this characteristic of real-world
vibration.
It can be stated that “K2/Non-Gaussian” can simulate
fatigue which is closer to the real environment experienced by the product than a “Standard Random” test in
this example.

Reproduced waveformof cargo tranporation
vibration by Random

Reproduced waveformof cargo tranporation
vibration by K2 / Non-Gaussian

impossible to reproduce
failure mode

Possible to reproduce
failure mode

PSD

Waveform

Histogram

Free software

It is the software to display result data file saved after the test of SINE, RANDOM and SHOCK.
It can be used for display of test condition, result graph, or for comparison between past test data(overlapping display), generation of reports.
Vibration Controller

K2 Sprint
While inheriting all of the performance and features of K2, K2 Sprint offers
improved cost-effectiveness with 2-channel hardware.
K2 Sprint is best-suited to single monitor-channel operation.
Mass: Approx. 2.0 kg

Differences from K2 • Input 2 channels (No expansion) • Output 2 channels (No expansion)
Test condition, result graph

K2/SINE Manual Test Remote Control Box (Option)

3D graph

Overlapping display

System Requirement[Supported OS]
Windows 10 (64 bit) , Windows 7 (32 bit/64 bit)

A control box for remotely controlling digital vibration controller K2/SINE.
The unit includes push buttons for test start and stop, and rotary controls formanually adjusting vibration frequency and acceleration.

[Memory]More than 512 MB of RAM is recommended[Hard Disk]

Application site

More than 200 MB of free space is required
Report51[Vibration Controller] K2[Vibration Controller] K2

52

Vibration Test Systems Vibration Controller

Software

Software
Basic Software

SINE

Specifications• Control Algorithm
Continuous closed-loop control of true rms level• Control Frequency Range
0.1-20000 Hz• Control Dynamic Range
More than 120 dB• Operation Modes
1) Continuous sweep, Spot, Manual
2) Closed-loop, Open-loop• Measurement Method
Average, RMS, Tracking• Multiple-Channel Control Modes
Average control, Maximum control, Minimum control• Input Channels
Maximum 20*Specifications may be affected by other conditions

Optional software• R_DWELL: Resonance Dwell
Resonance is detected by measuring thephase difference between the control point
and the response signal from a resonant partof the item under test. The test frequency iscontroller to maintain resonance as the
structure fatigues. After holding at theresonance for a pre-defined duration,
sweeping can be resumed, until the next
resonance is detected.

• Control Algorithm
Closed-loop control of PSD within each spectral line
• Control Frequency Range
20 kHz Maximum• Number of Control Lines
Maximum 25600 lines• Control Dynamic Range
More than 98 dB• Loop Time
200 ms (fmas = 2000 Hz, at L = 400 line)• Multiple-Channel Control Modes
Average control, Maximum control, Minimum control• Input Channels
Maximum 20*Specifications may be affected by other conditions

Multi SINE

• A_DWELL: Amplitude Dwell
A transmissibility plot is taken from two points
on the structure under test and resonances
listed. A sine test can then be run at eachresonant frequency, with tracking of theresonance by either amplitude or phase.
• LIMIT CONTROL
Response channels can be specified as limit
control channels. If the level on a limit control
channel would exceed its limit, the test level isreduced accordingly.
• Multi Sweep Sine
A traditional wide-band sine sweep is divided
into several narrower-band sine sweeps,
which when added together combine to cover
the original wide band. Running the narrow
band sweeps in parallel significantly reduces
the test time required.

RANDOM

Basic Software

Multi RANDOM• ROR: Random on Random
Broad-band random combined with sweeping
or non-sweeping narrow-band random overlaid.
• EXTENDED ROR
The extended ROR makes it possible tooperate an ROR test with greater freedom
when defining separate NBR references.
• PSD LIMIT: PSD limit control
Response channels can be specified as limit control
channels. If the PSD on a limit control channel
would exceed its limit, the test level is reduced overthat range of frequencies to keep with the limit level• Control Frequency Range
Maximum 20000 Hz• Number of Control Lines
Maximum 25600 lines• Control Dynamic Range
More than 98 dB• Type of Reference Waveform
Classical shock waveform(Half-sine, Haversine, Saw-tooth, Triangle, Trapezoid etc. ),Sine beat waveform, Measured waveform etc.

Multi SHOCK• Input Channels
Maximum 20*Specifications may be affected by other conditions

53[Vibration Controller] K2• LONG WAVEFORM
The length of a reference waveform is 16 K
points as standard. This can be increased to200 K points by adding the LONGWAVEFORM option. At a sampling frequencyof 512 Hz for example, this produces
approximately 6.5 minutes of waveform,
compared to the standard length ofapproximately 30 seconds.
• MEGAPOINT
A further increase in waveform duration canbe obtained by adding the MEGAPOINT
option to the LONG WAVEFORM option.
This increases the record length to 5000 K
points, about 163 minutes at 512 Hz
sampling rate.
• SRS: Shock Response Spectrum
SRS (Shock Response Spectrum) can executethe test in which the test condition ande v a l u a t i o n a re c o n d u c t e d n o t b a s e d o nwaveform itself, but on SRS analysis.
With standard shock test selected, SRS
analysis of response waveform is also possible.

• PSD LIMIT CONTROL
If a response point is specified to be alimit control channel, the level of PSD
doesn’t exceed the specified PSD levelin the test.
• Non-Gaussian
It is a vibration testing method which
precisely reproduces non-Gaussianvibration such as transportation
vibrations with large spikes.

• Control Algorithm
Finite-length waveform controlled by feed forward method• Control Frequency Range
Maximum 20000 Hz• Number of Control Lines
Maximum 25600 lines• Control Dynamic Range
More than 98 dB• Type of Reference Waveform
Classical shock waveform (Half-sine, Haversine, Saw-tooth, Triangle,
Trapezoid etc.), Sine beat waveform, Measured waveform etc.
• Length of Reference Waveform
Maximum 5000 k points• Input Channels
Maximum 32• Output Channel
Maximum 32• SRS: Shock Response Spectrum
SRS (Shock Response Spectrum) can
execute the test in which the test
condition and evaluation are
conducted not based on waveform
itself, but on SRS analysis.
With standard shock test selected,
SRS analysis of response waveform isalso possible.

Vibration Controller• Control Algorithm
Finite-length waveform controlled by feed forward
method• Control Algorithm (Three modes of control)
1) PSD of random signal closed loop control by spectrum density
for each frequency segment
2) Real-time waveform controlled by feed forward method
3) Monitoring and minimising of cross-axis component• Control Frequency Range
Maximum 10000 Hz• Number of Control Lines
Maximum 3200 lines• Control Dynamic Range
More than 98 dB• Loop Time450 ms (3-input, 3-output control, 120 DOF, fmax = 2000 Hz, L =200 line cross-talk information averaging times = 8 times/loop)• Multiple-Channel Control Modes
Average control, Maximum control, Minimum control• Input Channels
Maximum 20 (Maximum 20 chs for principal control channel )• Output Channel
Maximum 12*Specifications may be affected by other conditions• Soft-Clipping
A clipping function that can reduce the peakvalue of the output voltage without affecting
control performance.

SHOCK

Optional Software• LIMIT CONTROL
If a response point is specified to be alimit control channel, the level of that
response point will not exceed the levelspecified in the test.

*Specifications may be affected by other conditions• SOR: Sine on Random
Random vibration and sine vibration
frequencies are combined.
Sine vibration can be swept.

• Non-Gaussian
It is a vibration testing method which precisely
reproduces non-Gaussian vibration such astransportation vibrations with large spikes.

Specifications• Control Algorithm (Three modes of control)
1) Amplitude:
Continuous closed-loop control of true rms level2) Phase:
Real-time waveform controlled by feed forward method
3) Monitoring and minimising of cross-axis component• Control Frequency Range
0.1-10000 Hz• Frequency Resolution
Better than 10-4 of frequency• Control Dynamic Range
More than 120 dB• Operation Modes
1) Continuous sweep, Spot test2) Control and monitoring in various physical units• Estimation Method
Average, RMS, Tracking• Multiple-Channel Control Modes
Average control, Maximum control, Minimum control• Input Channels
Maximum 20 (Maximum 20 chs for principal control channel )• Output Channel
Maximum 12*Specifications may be affected by other conditions

Common optional software

CAPTURE:
Analogue waveform
signal data program

OutlineProvides analogue waveform signal
capture, saved data can then be used as
the reference of SHOCK, BMAC waveform
controls or Random vibration PSD control.

• Sampling Frequency

51.2 kHz maximum• Data Length

Maximum 5000 k points• Input Channel

Maximum 24• Waveform edit/analysis function

Filtering, Frequency transfer processing, PSD transfer, Transmissibility ratio between channels

SCHEDULER:Test scheduler

Pre-defined tests can be executed in sequence.

TCP Communication Server

TCP communication server software that allows external applications to operate K2 applications and acquire vibration data and operating status by sending and receiving commands via TCP/IP.

[Vibration Controller] K2

54

Vibration Test Systems Customised Products

Customised Products

Automotive Parts

Case Studies

Electrodynamic multi-axis 4 poster system

3-axis simultaneous vibration test system

Accurate waveform reproduction is achieved over a wide
frequency range up to 500 Hz by employing electrodynamic
vibration generators.

Test systems for the automotive tyre industry, used forevaluating the transfer characteristics of a tyre at varying
air volumes and ride comfort.

Torsion vibration test system

Low cross axis motion vibration test system

By installation of compact vibration generators on the top of amulti-axis test system and exciting both systems simultaneously,
reproduction of ‘real road’ 6-DOF and torsion is achieved.

Ensures low cross axis motion, equipped with the mechanism
to match the center gravity of the assembly of specimen +fixture (+ slip table) to the excitation axis by up and downof the table support bearing assembly.

With IMV’s approach to a more realistic reproduction of the vibration environment, IMV is focused on
producing products that are customised to the specific needs of our customers. IMV is proud of ourcontinuous contribution to improvements in product safety and comfort for the wider society throughincreasing product reliability as a ‘’solution partner’’ for all industries.

[Case Studies]

55

Case Studies

Case Studies

Customised Products

Customised
Products

56

Vibration Test Systems Customised Products

Customised Products

Automotive Parts

Case Studies

Rotation adjustment

6-DOF vibration test system

6-DOF large vibration test system

Diagonal excitation vibration test system

Torsion test system (6 DOF + Torsion vibration test system)

Evaluate road noise generated by a car by placing the test
system under the wheel of the car and generating vibration of
6-DOF nature in to one wheel.

Reproduction of ultimate vibration realism for testing ride
comfort of car seats with a 6-DOF vibration test system.

Diagonal excitation for two-wheeled vehicles. Angle of rotation
for the vibration generator can be adjusted in 1 degreeincrements.

6 DOF vibration test with measured running data ispossible. Torsion on car body during running can be
simulated. Torsion exaction for car equipment.

200 mm peak-to-peak displacement vibration test system

6-DOF simultaneous squeak and rattle test system for instrument panels

Environmental test system

Exhaust system durability testing

System is particularly suited for applications requiring highvelocity at low frequencies. The system has a high over-turning moment due to 4 linear guide bearings, allowing test of
specimens with a large offset centre of gravity.

6-DOF vibration test system with 8 compact, silent typeshakers for squeak and rattle acoustic noise evaluation of
instrument panels.

Environmental test system combining vibration, temperature,gasoline circulation, oil circulation and rotational drive.

Durability testing with hot air and vibration. Air temperature
range from 200 ℃ to 900 ℃, air flow from 2 to 10 m³/min provided
from a hot air generator is applied into the exhaust system.

Guide system

Case Studies

Customised Products

57

Case Studies

58Vibration Test Systems Customised Products

Customised Products

Automotive Parts

Case Studies

Low acoustic noise 3-axis vibration test system + guide rail

2-axis climatic chamber combined vibration test system

3-axis simultaneous vibration test system

Highly accurate testing and analysis are possible over awide frequency range from 1 Hz up to 2000 Hz.

Vibration test system can move along the guide rails. The
system can be combined with other test equipment if necessary, for example a temperature chamber.

Double-sided door makes easy to reach the specimen. Equippedwith temperature alarm meter for surface temperature monitoring
and CO2 automatic fire extinguisher.
Sine: 1000 Hz, Random: 2000 Hz,

Simultaneous 3-axis vibration test system designed forearthquake resistance test and earthquake regeneration.
Vibrations in three directions can be simultaneously applied tothe specimen.

Low acoustic noise 3-axis vibration test system

Vertical / Horizontal changeover chamber combined vibration test system

Ultra-high temperature (900ºC) chamber combined single axis vibration test system

Compact chamber combined vibration test system

Simulation testing using actual measured data or more traditional random
testing is possible in 3-axis simultaneous excitation. When combining theshaker system with a half anechoic room, 3D squeak and rattle testing in anenvironment with a background noise level of less than 30 dB is possible.

Used for durability testing of on-board battery chargers andinverters/DC-DC converters for electric cars. Vertical andhorizontal excitation, both combined with a chamber, ispossible.

Applicable to temperature and humidity environmental testing for
products which may be exposed to ultra-high temperature up to 900 ºC.
Employs the virtual point control method to control acceleration of
the specimen in the chamber without accelerometers mounted.

Function tests and durability tests of parts exposed to sudden
temperature change are possible.

Case Studies

Case Studies

Customised Products

59

Dynamic spring constant measuring system

60Vibration Test Systems Customised Products

Customised Products

Customised ProductsCase Studies

Case Studies

Electronic Parts

Underslung 6-DOF vibration test system (Railway testing)

3-axis simultaneous vibration test system

A combination of 10 vibration generators (6 vertical and 4 horizontal) and a 4,000 mm by 3,500 mm large-scale moving tableallowing simultaneous, multi-point vibration testing. This versatile
vibration platform is ideal for testing large items such as railway
carriage parts and fuel cells.

Simultaneous, multi-axis vibration data acquisition with IMV’s vibration measurement unit built
in to a railway container. Data is subsequently
used for a real waveform 3-axis simultaneous
vibration test.

Watch theYouTube video

Sensor calibration vibration test system

Environmental test system

Pure single-axis vibration which is very hard to generatewith a conventional single-axis system. 4 vibration
generators are located orthogonally to the major axis tocancel unwanted cross-axis acceleration.

Large area heat resistance glass (-40°C - 110°C）is provided
for checking the specimen inside the chamber during a
combined test. To reduce the required installation space, aguide rail system is used with for the vibration test system andhorizontal slip table.

High frequency vibration test system

Crimping terminal evaluation system

3-axis large vibration test system for transportation simulation

2-axis large vibration test system

Combining 4 low-noise compact vibration test systems with achamber and using multi-point control, vibration excitation
combined with a climatic test is achieved from 2 kHz up to 10 kHz.

Setup time is reduced with a dedicated fixture for various sizes ofcrimping terminal. 8 to 20 samples can be evaluated at one time.

Vibration test system for very large specimens. Moving table size
is 3,000 mm × 2,000 mm composed of 2 off 125 kN shakers for
the X and Y axes and 2 off 60 kN shakers for the Z axis.

Table size 2000 x 2500 mm, Maximum load 2000 kg.
Transportation test for large specimens or vibration durability test.

Case Studies

Customised Products

61

Transportation Test

Case Studies

62Vibration Test Systems Customised Products

Customised Products

Customised ProductsCase Studies

Case Studies

Construction Machinery

Earthquake Resistance

GDP (Guide system with air spring load
support)3-axis changeover vibration test system

Large scale earthquake resistance vibration test system

Maximum load is 2,000 kg. (when used with the lateral load
reinforcement guide or slip table). The built-in automatic ECO
function optimizes power consumption across all vibration test
types.

Once the specimen and fixture are set, it is possible to switch
the X/Y/Z axis excitation automatically. No time is spent
remounting specimens or assemblies. Tests can be easily
continued without time loss.

The unique hybrid method achieves accurate
reproduction of both large-displacement andhigh-frequency waveforms by utilising thebenefits from an electrodynamic vibration
generator and an AC servomotor.

An industry first, hybrid technology low-frequency vibration test system which simulates highly
accurate waveforms including high- and low-frequency components simultaneously with anelectrodynamic shaker and AC servomotor.

6-DOF vibration test system

Large vibration test system for high frequency testing (up to 5000 Hz)

Large 2-axis simultaneous, multi-point excitation vibration test system

Earthquake resistance vibration test system for seismic switches

Durability testing with real measured waveforms for excavatorcabins or heavy machinery tanks. The system reproduces
vibration in X,Y, Z axes as well as roll, pitch and yaw.

For high-frequency tests with large specimens. The slip table canbe replaced according to the size of the specimen and each table
can be used for high-frequency testing.

Large vibration test system with a table size of 4500 mm × 4500 mm.
Rated displacement: 400 mm peak-to-peak horizontal, 200 mm
peak-to-peak vertical. Maximum load of 20 ton.

Hydraulic bearing (Type TT) makes it possible to achieve a
waveform reproduction error ratio within 2% using only 2 or 3 drive
signal updates.
Maximum displacement: 150 mmp-p Frequency range: 0.5 – 20 Hz

Case Studies

Watch theYouTube video

Large scale earthquake resistance vibration test system

Watch theYouTube video

Case Studies

Customised Products

63

Energy saving type vibration test system with large size slip table64

Vibration Test Systems Customised Products

Customised Products

Customised ProductsCase Studies

Case Studies

Aerospace

Other Applications

Adopted by JQA (Japan Quality
Assurance Organization)

350 kN large water cooled vibration test system

Vibration test systems for clean rooms

Vibration test system for fatigue testing of copper plate

Compact vibration test system for sensor calibration

Especially developed for the fatigue testing of copper platingby customizing a compact shaker from IMV’s m-series. Simultaneous testing of 12 sheets of copper plating is possible withthis compact system.

This system realizes low distortion in low-frequency andlow-acceleration areas and is used as a calibrator at JQA andother public institutions.

One of the world's largest excitation force systems,with a distinctive 76.2 mm p-p (3 inches) alternative displacement rating.
High-velocity shock tests of 3.5 m/s are also
possible.

The air inlet and outlet for the shaker are ducted from outsideof the clean room; this maintains the cleanliness of the room.

Large-scale 200 kN vibration test systems for the aerospace industry

Multi-point, multi-axis vibration test system

Vibration test system with acid-resistant table

Pressure-proof flexible duct endurance test

With low displacement requirements for the aerospace industry,
this system is fitted with a Team slip table using the T-Film bearing.
High over-turning moment and low cross-axis acceleration arefeatures of this system in both vertical and horizontal operation.

Multi-point vibration test system with three-axis simultaneous
excitation. The system has the capability to carry out tests ofvery long specimens over a high frequency range.

A standard specification slip table with alumite coating (as an
example) is not suitable for vibration testing in the battery industry
due to damage caused by leaking battery chemicals. A specially-formulated coating for the slip table is applied which is resistant tobattery leaks.

The neutral position of the horizontal slip table can be adjusted
and the slip table displacement is controlled as well. This allows a
specimen to be permanently and rigidly fixed on one side andmounted on the slip table on the other side.

Case Studies

Case Studies

Customised Products

65

Watch theYouTube video

66

Technical Guidance
For installation of vibration test systems

Basic units used for vibration test
There are four important units for a vibration test. Force [N], Acceleration [m/s2], Velocity [m/s], and Displacement [mm peak-to-peak(p-p)]
The force “F” required to give an object of mass, “m” acceleration “A” is;F=mA

F : forcem : mass
A : acceleration

SI units[N][kg][m/s2]

Gravitational units
[kgf]
[kg]
[G]

That is to say, when a mass of 1 kg is accelerated to an acceleration of 1 m/s2 the required force is 1 N. Gravitational acceleration“G” equals to 9.8 m/s2.
To describe vibration, frequency and vibration level need to be
specified. Vibration is a form of movement; with a consequent
relationship between acceleration, velocity and displacement. To
describe vibration level, any of these units can be used. Here are
the relationships between each of the units.
We have an object moving in a sine wave.
The displacement is;
The velocity is obtained by differentiation of the displacement. Therefore
V = dD

The acceleration is obtained by differentiation of the velocity. Therefore;
A = dVdt

A = -ω2D0 sinωt
As we substituteω = 2 πft
We have formulae indicated only in amplitude;
D:Displacement
V:Velocity
A:Acceleration

V = ωD = 2 πfD
A = ω2D = (2 πf)2D[m0-p][m/s][m/s2]

The following diagram shows waveforms for displacement, velocity
and acceleration.
D0
0
-D0
ωD0
Velocity V

use the logarithmic scale “dB” instead of a linear scale. This makes

f:Frequency [Hz]A:Acceleration [m/s2]
V:Velocity [m/s]d:Displacement [mmp-p]“dB” is expressed by the following
a = 20 log

We often use the graph below when running a Sine vibration test.

One million times is ;This is a log-log graph that was discussed above. Asymptotes of
constant displacement, velocity and acceleration are shown. Here is

f = 50 [Hz], d = 2 [mmp-p]

Not only does dB reduce the number of digits (smaller numbers to

V = 2 π fd = 2×π ×50×2 = 0.314 [m/s]
2000
2000

handle) but also simplifies calculations. For example, adding 25 dB and

A = (2 π f) d = 4×π ×50 ×2 = 98.7 [m/s2]
2000
2000
A = 100 [m/s2], V = 0.5 [m/s]2f =value. We use a logarithmic graph for such benefit.

Sine test graph

A1 = Comparison value
A0 = Reference value

A1
[dB]
A0

a = 20 log 1,000,000 = 120 [dB]1

The following is an exampleⅰ)

we can read the value even if it is 1/100 or 1/1000 of the maximum

the values more sensible and is an industry standard practice.

A
2 πV(2 π f)2d
A=
2000
2 π fdV=
2000
2000 Ad=(2 π f)2
f =[ex]

thousands or millions times a multiple of a reference value, then we

hardly read Y when X is 10 or 1. Whereas on the logarithmic graph,

2

2

A =
100
= 31.8 [Hz]2 πV
2×π×0.5
2

Please see the conversion chart (Exchange table) on page 74 forcalculation.

30 dB makes 55 dB but if you do it in a linear way ;an example of an asymptote of constant velocity. From the formulae
we learned before

ω 2D 02525 [dB] = 20 log A

A = 10 20 = 17.78

From this equation we can read that acceleration A is increased 103030 [dB] = 20 log B

B = 10 20 = 31.62

times when frequency f is also increased 10 times. On the graph

A×B = 17.78 × 31.62 = 562.3 = 20 log 562.3 = 55 [dB]

Now you see you can use addition instead of multiplication by using“dB”. That is to say, it is very easy to calculate by using “dB”.

below, we see that the acceleration increases to 100 m/s2 from 10
m/s2 as the frequency increases from 10 Hz to 100 Hz.
In the case of constant displacement

The following is a conversion table for “dB” and multiple.

A = (2 π f)2D

dB

0

0.1

1

3

6

10

20

30

40

60

Multiple

1

1.01

1.12

1.41

2.0

3.16

10

31.6

100

1000

dB

0

-0.1

-1

-3

-6

-10

-20

-30

-40

-60

Multiple

1

0.99

0.891

0.709

0.501

0.316

0.1

0.0316

0.01

0.001

D : Displacement

The equation shows that acceleration A is increased by 100 (102)times when the frequency f is increased by 10 times. Acceleration
being proportioned to the second power of Displacement. On thegraph below, we can read that the acceleration increases to 100 m/s2
from 1 m/s2 as the frequency increases to 10 Hz from 1 Hz.
1000

Use of a logarithmic graph
We often use a logarithmic graph when we need to plot data forvibration testing or other physical phenomena.

Acceleration [m/s2]
Constant
displacement

100

100

Constant acceleration

100
Constant velocity

10
1

1

10
100
1k
10k
Frequency [Hz]Sine test (logarithmic graph)

The graph shows the asymptotes when velocity or displacement

0
-ω2D0

A : Acceleration
f : Frequency
V : Velocity

A = 2 π fV0
-ωD0

Acceleration A

is substituted in to all of the above formulae2

V = ωD0 cosωt

We use ”dB” as a unit when describing the proportional relationshipof physical quantities. Especially, in cases where one value isd = 2000 V = 2000×0.5 = 5 [mmp-p]
A
100

dt

On the linear graph, we can read 20 for Y when X is 100. But we canAbout [dB]

D= d
2000

ⅱ)

D = D0 sinωt

Displacement D

In the field of vibration test, we use mm p-p for the peak to peak
displacement.
Therefore50

stays constant.

10

We get the formulae below by transforming the above formulae.
A
2 πV
2
A= V
D
V = 2 πfD
D= A 2(2 πf)f =67

For installation of vibration test systems

0

0

500
Linear graph

1000

1

1

100
1000
10
Logarithmic graphFor installation of vibration test systems

68Technical Guidance
For installation of vibration test systems

Vibration insulation for a vibration generator

Limitation of maximum displacement

When using a vibration generator, the vibration is transmitted to the

There are several methods for vibration isolation. All of these

When the vibration test system is installed, it is necessary to thinkbuilding and other facilities through the floor.

ways bring limitations on maximum displacement.

about the noise. There are several sources of noise such as

Particularly in the frequency range of 2 Hz to 20 Hz, even a small

In the case of body isolation, the vibration generator body reacts

excitation noise, suction noise (for air-cooled systems), blower

proportion of vibration from the vibration generator can have a large

against the movement of the specimen.

noise, blower exhaust noise and cooling fan noise of the power

effect on buildings because they have their own resonances in this

Noise control

amplifier etc.

frequency range.

M1

Therefore, a vibration generator needs a vibration isolation system.

The shaker excitation noise might exceed 100 dBA at a typicalVibration generator

The following shows some examples.

maximum acceleration of 980 m/s2. The suction noise is about 90
dBA, and blower noise + blower exhaust noise is about 80 dBA.
However, these figures can differ depending on the shaker model.

1) No insulation

Suspension

1) Installing the blower outside the room

F:ForceF

M2

All the force generated by the vibration system
is transmitted in to the floor. This may excite
resonances in the buildings and other facilities.
The vibration generator itself may sometimes
jump up and down.

Vibration
generator

C. Sound proof box only for the blower

Air flow

The blower noise is reducedThis method doesn’t change the suction noise nor the excitation noise of thevibration generator.
* During the blower is stopped, it is recommended to make treatments to prevent
air backflow.

Vibration generator3) Concentrated suction typeIn the case of body isolation, the vibration generator body will be
excited by the reaction force. If the shaker excitation frequency is 2-72) Body suspension

Hz, this may coincide with the resonant frequency of the armaturesuspension system and the body suspension system. The armature

Air springs

F

IMV uses this method of vibration isolation
except for the small, compact shaker range.
This may limit a shaker system’s maximum
displacement when the operating frequency
is low.
See “Limitation of maximum displacement”

Vibration
generatorand body motion could be almost in “anti-phase” resulting in theabsolute value of the available armature displacement becoming

BlowerThis is generally a simple method.
The blower noise and the blower exhaust noise are reduced in the test area.
However, this method doesn’t change the suction noise or the excitation noise of
the vibration generator. * The blower cannot be installed outdoors.

severely limited.

2) Sound proof box

Typically only 10 mmp-p displacement is available from a 51 mmp-p

A. Vibration generator and blower

The suction noise of the vibration generator falls by about 5 dBA. The main
purpose of concentrated suction is to take air from the outside without using the
air in the room to cool the shaker (typically used for clean rooms etc.)* The blower cannot be installed outdoors.

rated vibration generator.
If using an “isolated foundation”, the effective mass of the foundation

3) Bottom suspension

plus vibration generator body could be much heavier thanspecimen+armature assembly. Therefore, limitation for the available

F

Elastic objects or air springs

Vibration
generator

This has a similar effect of vibration isolation
but it can also cause lateral motion at low
frequency.

4) Isolated foundation

Foundation69

For installation of vibration test systems

Air inlet

Air outlet

This method reduces the excitation noise and the blower noise.
* During the blower is stopped, it is recommended to make treatments to prevent
air backflow.

B. Vibration generator only (blower is outside the room)F
Vibration
generator

displacement becomes negligible.

This is the best way ofvibration isolation.
Generally, the mass of thefoundation block should be atleast ten times heavier than
the rated force of the system.
Typically, the mass of thefoundation should be twenty
times heavier.
If you are interested in thismethod of isolation, pleasecontact IMV.

The excitation noise and the air inlet noise are lowered.
It is recommended to place the blower outside.
* The blower cannot be installed outdoors.
For installation of vibration test systems

70Technical Guidance
Mechanism of vibration test systems

Principles of operation
Signal flow, voltage / current supply in single-axis system

Mechanism of vibration test systems

Signal flow, voltage / current supply in multi-axis system
Acceleration signal

Acceleration signal

Electrodynamic vibration test systems

Vibration controller

The principle is similar to the audio systems where electronic signals
from different sources (i.e CDs) are amplified and converted to soundby loud speakers. For the vibration test systems, the vibration generators correspond to the loud speakers of the audio systems. They
have the vibration controllers instead of the sound source to drive thevibration generators feeding the electric current through the amplifiers. The difference is that the signals from the transducers mounted
on the specimens and/or vibration tables to monitor their motions are
fed back to the vibration controllers in order to control the vibrations
to meet the requested test conditions.

The original waveforoms will not be reproduced by just applying thevibration data obtained in the field or form test specimens. The
waveforms will be totally defomed due to the characterisitics of theamplifiers , combined dynamics of the vibration generators and test
specimens. The vibration controllers the equipments to have thevibration generators generate the designated vibration compensating automatically these characteristics or dynamics. All IMV vibration
controllers are customised for each of our clients in order to meettheir particular needs. “User Friendly” has been always pursued.

Electric
signals

Vibration controller

Electric
signals

Current
voltagePower amplifier

Current
voltageVibration Generator

Vibration controller

Power amplifier

Vibration Generator

Acceleration signal
Vibration controller

Power amplifier

Vibration Generator

Vibration generator
The operation principle is based on “Fleming’s left hand rule”.

The formula below represents the Fleming’s left hand rule.

Corresponds toaudio equipments

Corresponds toaudio equipments

Corresponds toaudio equipments

Music CD

Amplifier

Speaker

F=BxIxL

F : Force [N]B : Magnetic flux density [T]I : Electric current [A]
L : Length of cable [m]Inside of vibration generator (Air cooling method)
Auxiliary table

Upper armature
support system

Upper cover
Colling air

Force (N)Magnetic
ﬂux density (T)Colling air

Drive coil

Field coil

Air suspension
Electric
Current (A)Complicated tests are professionallyprogrammed and executed.

Vibration generator

Power amplifier

The operation principle is based on “Fleming’s left hand rule”.
When an electric current flows in a wire put in a magnetic field, it getsa force perpendicular both to that field and the direction of thatcurrent.
Cross section view

The role of the power amplifier is to feed driving current to thevibration generator converting the small electrical signal generated in
the vibration controller to the large current of higher voltage.
IMV’s power amplifiers employ the switching amplifier system.
They use mainly the compact and highly efficient power modules of
the top level in this industry to contribute to energy and space saving.

Mechanism of vibration test systems

Blower

The vibration test system can employ either of two methods to cool : air or water cooling. Each method has its own key features.
Selecting a cooling method that meets to your installation requirements based on the key feature as below.
Cooling method

Air cooling

Water cooling

How to cool

Cools the coils by using air from outside.
Forces exhaust by blowser.

The coils are made of pipe and distilled water is circulated to cool thecoils using a heat exchanger and a cooling water.

Key feature

Employs only a blower as cooling equipment. Easy to install.

Operation noise is significantly lower compared to air cooling.

Points to ponder

Duct connection or soundproof treatments may be necessary to
reduce suction noise from the vibration generator and exhaust noisefrom the blower.

A primary cooling water facility is necessary.

A power amplifier in the system supplies electric power to the vibration
generator. The power amplifier generates higher current of higher
voltage in response to low power electric signals from the vibration
controller.

Electric
power
71

Duct case

Cooling method of vibration generator

Power amplifier

Power module SA-300

Bottom armature
support system

Image

Input

OutputElectric(VA) = Electric
voltage (V) x current (A)Each component is independently controllable and harmonises each other72Technical GuidanceConversion Table

Invention with IMV’s originality

Relationship between frequency, displacement, velocity and acceleration in sine vibration testing103

Original technology utilised to improve durability and performance of vibration generators

Armature

AC

C

5
3
2
10
VELOCITY [cm/sec]

Upper support
system5

PS guidance system

7

L
SP

I

D

7

EN

EM

AC

T

EL
m

m

1[

ER
] AT

IO

N

10

2

[m

/s

ec
-1

10

]2

5

10

Vibration table

10

102

4

Specimen

10

Center of specimen

Armature

2

3

Eccentric moment

Vibration generator cross section view (image)

2

10

3

When the table working surface of the vibration generator is not wide
enough to mount the specimen, it must be expanded using some
fixture or auxiliary table. Large lateral rigidity of the table guidancesystems is important, because it is hard to bring the center of gravityof the specimen on the center line of the vibration table. The larger
the specimen is , its importance is increasing.
Our PS guidance system (Parallel Support Guide) realizes 130 %increase of rigidity over those of the same force range conventionalmodels. It achieved that the specimens whose center of gravity are
not located on the center line of the vibration table can be tested
being applied higher acceleration.

10

Vibration generator receives adynamic stress by its own vibration.
The Parallel Support Guide (PSG)
design is a patented one that can
support the armature. PSG significantly improves durability, reliabilityof the system, and quality ofvibration at the same time.
This compact design provides
enough stiffness which exceeds
such functions of roller support system and realizes high durability
and self-holding supporting system by alternative alignment of gears
that have a unique curve.

5

Large allowable eccentric moment

10

Upper (armature) support system PS guide

3

10

7

3

-2

10

2

-3

1

1

10

7
5
-1

10

Compatibility of lateral rigidity and waveform
regeneration accuracy

Driving coil

Field coil

Improvement of durability
10 times longer (compared to conventional system’s) life wasachieved to make much longer the interval of maintenance.

2-2

Suspension

10

10Usually lateral rigidity and waveform accyracy conflict each other. PS
Guidance system achieved their compatibility. It realizes vibrations oflower waveform distortion with high fidelity.

-4

3

10-1
7

-5

10

5
3
2
-3

10

Flexibility to respond to demand for large
displacement tests
Flexibility is provided to respond to demand for 100 mm stroke
vibration tests.

10-2

1

2

3

5

7

10

2

3

102

2

3

5

7

103

2

Displacement

D=d [mm]

ExampleVelocity

V= 2πfd [cm/sec]
10
2
(2πf)
A=
d [m/sec2]
10001) f=50 Hz, D=1 mm
V=31 cm/sec, A=99 m/sec 2

f : Frequency [Hz]Note: D,V and A are in single amplitude

Invention with IMV’s originality

7

3

5

7

10

FREQUENCY [Hz]Acceleration73

52) f=100 Hz, V=100 cm/sec
D=1.6 mm, A=630 m/sec 23) f=600 Hz, A=60 m/sec 2
D=0.0042 mm(4.2 µm), V=1.6 cm/sec

Relationship between frequency, displacement, velocity and acceleration in sine vibration testing74

Related Products

Export of Products
Export of IMV vibration test system productsPiezoelectric accelerometer
Since IMV has developed assembled accelerometers using in-house manufactured transducer elements,
it is possible to offer a wide variety of piezoelectric accelerometers.

Small & light VP-02S

Small VP-2M1ZRFrequency range Hz fc-13000 *1
Charge sensitivity pC/ (m/s2) 0.22 ±20 %φ86.5

Capacitance pF

1000

Maximum allowable acceleration m/s2 10000

3

Operating temperature range ºC -20-150

φ7.2

5.2
φ6

Cable connection

Sidewise direction, M3 Threaded connector

Mass g

1.2

Material

Titanium & Aluminum(A2017B)

Wide temperature VP-32

9.3

6

X

6
Z axis Y axis
Z

Y

Charge sensitivity pC/ (m/s2) 0.16 ±20 %Capacitance pF

440

Maximum allowable acceleration m/s2 50000
Operating temperature range ºC -20-160

3.3

Z
X

Cable connection

Sidewise direction,
M3 Threaded connector

Mass g

5.2

Material

Titanium

Resonance frequency Hz > 60000

Frequency range Hz fc-10000 ±1 dB *1

Frequency range Hz fc-13000 ±1 dB *1

Charge sensitivity pC/ (m/s ) 3.0 ±10 %Charge sensitivity pC/ (m/s ) 0.035 ±20 %Capacitance pF

1500

Maximum allowable acceleration m/s2 9800

5.8
2.5
φ3.5

Cable connection

5

Mounting screw (female)
M5 P0.8 Depth 45connector
screw10-32UNF

Low noise cable
Mounting surface φ0.8 /1 m

2

Capacitance pF

340

Maximum allowable acceleration m/s2 100000
Operating temperature range ºC -50-160

Sidewise direction,
10-32 Threaded connector

Cable connection

Mass g24

Mass g

0.2

Material

Stainless steel (SUS303)

Material

Titanium

Micro VP-4M2Z

Side-horizontal,
10-32 receptacle

Output connector φ0.8 Low noise cable
No.10-32 UNF
Length 0.3 m

Frequency range Hz fc-10000 *1

Y
Y

X

IMV
VP-4M2ZX

Y axis output
X axis output
Z axis output

Capacitance pF

7X
Ser.No.

φ65Operating temperature range ºC -50-160
5.5

0.5

Cable connection

14

Side-horizontal,
10-32 receptacle on the other side

the order, because IMV has to apply for the E / L in Japan. In thelatter case, IMV will always request the end user to prepare theMass g

0.9

Titanium

Material

Aluminum (A2017B)

Power Supply

Operating temperature range ºC -30-110

IMV
VP-A1P0
Ser.No.

11.5

0.3

2.3
φ6

0.5-5 mAConstant current
Voltage 15-25 V

Mounting screw
M3 P0.5 Depth 2

Cable connection

Top-vertical M3 threaded connector

Mass g

1.9

Material

Titanium*Please note that optional software “Program K2” used forvibration controller K2 / K2 Sprint also requires Japanese
government export license (E / L).

"Certification of End User / End Use" after placing the order withthe sales representative or IMV. The certificate is required by andwill be requested by IMV.

Resonance frequency Hz > 35000
Frequency range Hz 3-5000
9.5

Voltage sensitivity mV/ (m/s2) 1 ±10 %4.2

system or regulations.

because of the end user or the end use.

Sidewise direction,
M3 Threaded connector

1.2

Maximum Acceleration m/s2 3000

that there is a possibility that IMV may not accept the inquiry

inform the end user of the required details etc. before accepting

Material

Frequency range Hz 3-12000
Output connector
No.10-32 UNF

any questions regarding contents of the Japanese export control

Cable connection

VP-4132

Resonance frequency Hz > 40000

φ6.9

Please contact the sales representative or IMV should you havethrough the sales representative for the end user. Please note

Operating temperature range ºC -20-80

Small VP-A1P1Z

Hex7

Usually, the information is sent to IMV in writing

export the products from Japan. In the former case, IMV will

1500

Mass gSmall VP-A1P0

If not, IMV will have to stop the export arrangements.

products.

Charge sensitivity pC/ (m/s2) 3.0 ±20 %Maximum allowable acceleration m/s 1000

5

Use before our export arrangements are made for the products.

end use of the products before we issue the price quotation of theFrequency range Hz fc-1000 ±1 dB *1

2

3

end user (including the name of department) and purpose of theexport the products from Japan or an E / L will not be required to

Capacitance pF

Maximum allowable acceleration m/s 50000
Z

4

250
2

8

Z

Output connector
M3 P0.5

Charge sensitivity pC/ (m/s2) 0.04 ±20 %IMV has to obtain the E / L or the Certification of End User / End

Either an E/L of the Japanese government will be required toResonance frequency Hz > 3000

Export arrangement stage

IMV requires correct information about the address, name of theOrder stage

Light & high sensitivity VP-4132
Resonance frequency Hz > 50000** marked products in this catalogue require E / L.

Quotation request stage

Resonance frequency Hz > 30000

Operating temperature range ºC -40-160

6
Hex14

X
Output connector
C29-103R

3

2

Output connector
No. 10-32 UNF
VP-32

Y

Micro VP-4M2

φ14

23

10

2.5
X axisFrequency range Hz fc-10000 *1

7

17

IMV
VP-2M1Z
Ser.No.

Output connector
M3 P0.5

φ2.1 (mounting hole)

Resonance frequency Hz > 35000

Resonance frequency Hz > 40000

IMV CORPORATION has been registered by the Japanese Ministry of Economy, Trade and Industry (METI) regarding export controls
as a company in good standing compliant with the Japanese export regulations for Electro-dynamic vibration test systems or the related
products composing the test systems (hereafter, "IMV Vibration test system products") that are strictly controlled for export from Japanto end users and/or end use that concerns manufacturing or development of ordinal weapons and/or mass destruction weapons including
any equipment to transport them. Therefore, IMV has the obligation to confirm to the ministry in Japan that the customers of IMVvibration test system products are not related to or concerned with such purposes before arrangement of export of the products, even if
the products exported do not require an Export License (E / L) by the Japanese government. Therefore, IMV will ask customers to
issue the following information and documentation to us in each of the following stages.

Z

Z

X

Outputconnector
DR-4S-4

Voltage sensitivity mV/ (m/s2) 10 ±10 %

14.2

14.2
X

IMV
VP-A1P1Z
Ser.No.

14.2

Maximum Acceleration m/s2 500

Z
Y

Mounting screw (female)
M5 P0.8 Depth 3.5

Power Supply

0.5-10 mAConstant current
Voltage 21-24 V

Operating temperature -50-110 (5 mA)
range ºC
-50-70 (10 mA)
Cable connection

Sidewise direction

Mass g Approx.11 Material

Titanium*1 fc: To be defined by the time constant of amplifier

Broadmotion sensor

VP-8013/VP-8013S

Broad motion sensor, VP-8013, with the use of an original sensor module developed by IMV is enabled
to measure and monitor vibration in wide frequency range which was not covered by single sensor of
any conventional types.
Features1. Covers from ultra low acceleration (0.04 Hz)* up to high frequency mechanicalvibration (1000 Hz)*Actually the output starts from DC, performance confirmed range is from 0.04 Hz.
2. Compact design with three axis detection
3. Shock durability 10000 m/s2
75

Related Products

Export of IMV vibration test system products76IMV Test Laboratory Network

e-Test Centre Japan

IMV’s test laboratory network provides customers with full support

IMV offers a full service as the customer’s partner of choice
Since 1988, IMV has been pioneering the test laboratory business in Japan. IMV opened six test laboratories in Japan and two overseas.
IMV’s test experts solve problems with the highest quality and using the most advanced test systems. IMV has worked on over 20,000 test
projects.

IMV TECHNO VIETNAMCOMPANY LIMITED

Focusing on solving problems for our customers, the latest test laboratory brings
together Japan's technology for reliability evaluation. Companies complement
each other, offering high value-added services such as precise analysis,
proposing new test methods, development of new facilities and so on.
• Reliability evaluation test for e-mobility parts such as large-sized motor orinverter of EV/HEV• Evaluation of large parts such as 100 kg, 1 m is possible while part is being
operated• Various environmental tests such as high stress temperature cycle test or salt
spray test
• Ultra-high temperature (900°C) chamber combined vibration test is available

e-Test Centre Japan• Other tests perfomed in conjuction with specialised agencies• Full security system

IMV(THAILAND) C0., LTD

Advanced Technology Centre

4102-142 Miyadera, Iruma, Saitama,358-0014, Japan
Tel : +81-4-2009-1043
Fax : +81-4-2009-1044
E-mail : info-etcj@imv-corp.com

Tokyo test laboratory

Chamber combined vibration
test system with a slip table

Osaka test laboratory

Kasugai test laboratory

High stress temperature
cycle test system

Cyclic corrosion test system

Anechoic chamber

Nagoya test laboratory

Advanced Technology Centre for Environmental Testing
Test Laboratory for railway vehicle parts

Certified to ISO/IEC 17025
IMV’s test laboratories are authorised and operating under quality control management systems in accordance with the international standard
ISO/ IEC 17025, which specifies the testing capability and test laboratory calibration.
[Outline of Japanese laboratory](1) Certification number: RTL04240(2) Authorisation organisation : Public Interest Incorporated Association the Japan Accreditation Board(3) Authorisation date
: March 15th, 2016
(4) Authorised field: Vibration test/shock, test/temperature, cycling test / vibration and temperature
cycling test/ISO16750-3 TEST I (engine) and TEST IV (vehicle body)

To meet the future needs we installed a full range of vibration test systems forbattry testing and very large specimens. ATC is a facility that takes into consideration the IT environment and the security of information based on ISO 27001.
• Installed Japan’s largest vibration test system, 350 kN• Lithium-ion battery testing for EV/HEV• Installed a large earthquake resistance test system capable of reproducing
earthquake waves• High velocity shock test is available• Full security system2193-28, Yatsusawa, Uenohara-shi,
Yamanashi, 409-0133, Japan
Tel : +81-554-62-6677
Fax : +81-554-62-6678
E-mail : info-uenohara@imv-corp.com[Outline of Thai laboratory](1) Certification number: 4784.01(2) Authorisation organisation : A2LA
(3) Authorisation date
: June 26th, 2018
(4) Authorised field: Vibration test (Sine), Vibration test (Random), Shock test, Temperature cycling test,
Vibration and temperature cycling test, Temperature test (hot), Temperature test (cold),
Temperature and humidity cycling test, Temperature and humidity static test
[Outline of Vietnam laboratory](1) Certification number: VILAS 1284
(2) Authorisation organisation : Bureau of Accreditation Vietnam (BoA)(3) Authorisation date
: March 2nd, 2020
: Vibration test (Sinusoidal), Vibration test (Broad band random), Shock test,(4) Authorised field
Dry heat environmental test, Cold environmental test, Change of temperature test,
Damp heat environmental test (steady), Damp heat environmental test (cyclic).

77

IMV test lab network provide customers a full-support

The world's largest 350 kN
vibration test systemwith a slip table

3-axis large earthquake
resistance vibration test system

Chamber combined vibration
test system with a slip Table

IMV test lab network provide customers a full-support

78

Coverage

System Layout

Tokyo sales office
Tokyo engineering service

Service area

Instllation Example

Service networks (Japan)■ ModelOsaka sales officeOsaka engineering service
Shizuoka sales office□ IMV □□ IMV □• Primary• Secondary

CeilingHeat exchanger

10

1

5
3

12

14

7
15

2

6

16

4
9

11
8
13

4

AUSTRIA• LB-acoustics

ACV• Power supply for controller

AC

V
Mpa

• Water *primary• Water *secondarymm

Global Networks
UK• IMV EUROPE• 1G DYNAMICS• THP Systems
2 Germany• IMV EUROPE• 1G DYNAMICS
3 France• IMV France• Power supply for vibration shaker• Air

Nagoya sales office
Nagoya engineering service

1■ Primary

Scope of cooling water• Diameter of air duct horse

11• Recommended installation space W

Scope of cooling blower

Poland• Spectro-Lab□ IMV □

Belgium/Netherlands 12 Portugal• MRA Instrumentação
• AKRON
13 Slovenia
6 Czech/Slovakia• LT d.o.o.
• JD Dvorak
Russia14 Spain• Ostec Enterprise
7 Finland•
Alava
Ingenieros• ECO-TEST HOLDING• LaboTest
15 Sweden
8 Hungary•
LaboTest• AMTEST-TM
China
16 Switzerland
9 Italy• IMV CORPORATION Shanghai Representative Office•ELSTAR Elektronik• Belotti Sistemi• Euroc Test Equipment (GuangDong)
17 Turkey
10 Norway• MORITANI SHANGHAI• MEGA Danışmanlık Temsilcilik• Kuldespesialisten AS• ESPEC ENVIRONMENTAL EQUIPMENT (SHANGHAI)
5mm

Scope of primary power supply

In case of Water Cooled System□ IMV □

Cooling blower
When the exhaust air is directed into
a separate room or into the open air,
the working environment can befurther improved.

mm> 500 mm

Mexico•Yamazen Mexicana•Euro America

Taiwan• KEISEIKING ENTERPRISESHPower amplifier

17

Korea
• ABC MTS
• RCT• General Utility

D

Vietnam• IMV TECHNO VIETNAM
India• TECHNO VIETNAM INDUSTRIES• RED STAR VIETNAM• Dynamic Test and Measurement Systems
USA
Philippines• SAMS ADVANCED CLIMATIC TECHNOLOGIES• IMV America, Inc.
• CentiForce Instruments
ThailandSingapore・Instrumentation Resources• IMV (THAILAND) • Dainan TECH(S)・Johnson Testing Equipment
・Southern Marketing Associates
Malaysia
Indonesia
・Technologies West RMS• C. Melchers• PT.DAINAN 2 INDONESIA・W5 Engineering
South Africa
・Moritani America Inc.
• XTEMP (Pty) Ltd
Australia• HALT & HASS Australia(800 to 5,000 mm)> 500 mm

Junction box
mm

mm

mm

Vibration controller> 500 mm

H

mm

> 500 mm

New Zealand• HALT & HASS Consulting NZ> 500 mm
Vibration generotor

D

mm

mm
mm

W
mm

ThailandUK

Germany

China

America

Vietnam・ Manufacturing and
Demonstration Centre

German Sales Office

IMV CORPORATION

Shanghai Representative
OfficeIMV America, Inc.

IMV TECHNO VIETNAMCOMPANY LIMITEDIMV(THAILAND)CO.,LTD. ・ IMV EUROPE LIMITED IMV EUROPE LIMITED

79

Service area

*Room layout can be changed to suit the customer’s needs.
Instllation Example

80

Memo