Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYSE-EP2-PF probe

EtherNet/IP interface
（detachable probe element）

GYSE-EP2-PF of profile type is EtherNet/IP output type sensor.
It is an adapter device that outputs displacement/velocity of magnets via EtherNet/IP.
The position/velocity of up to 20 sensing magnets can be detected with a sensor.
The sensor element can be detached from the housing and replaced.

Specifications

Model No.

Dimensions

Probe

Connector

Wiring

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYSE-P-PF Probe

Profibus DP interface
( detachable probe element )

This is the linear profile version of GYSE-P. It is PROFIBUS interface type. Setting parameters (resolution, output direction) through PROFIBUS is possible. GSD file is available on SANTEST web site. Detecting up to 32 pcs of magnets on one probe is possible (Min. proximity distance between 2 magnets is 75mm). When you use a PROFIBUS master simulator of separate sale, it’s possible to confirm the data and to set up a PROFIBUS slave from a PC without PROFIBUS master (usually, PLC).

• CE marking
• Noise cancellation

Specifications

Model No.

Dimensions

Probe

Connector

Wiring

■ Connector and Cable Models
・Power supply connector :CN-SEP-M8-□
・Profibus connector (IN, male) :CN-SEP-M12M-○□-△
・Profibus connector (OUT, female) :CN-SEP-M12F-○□
・Terminal :CN-SEP-TR

○ :cable length(m),
S :standard
R :robot cable

□ :cable length(m)
In case of “0”, it means loose connector only

△ :blank :loose connector (IN, male)
M12F　:with connector (OUT, female) at the other end
(Need to specify cable length)

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYSE-S-PF Probe.

SSI output
（detachable probe element）

This is the linear profile version of GYSE-S. GYSE-S probe outputs displacement of the magnet as SSI (Synchronous Serial Interface). SSI is output of a serial communication-type and outputs the position data of 24 – 27 bit. When using SSPC-03 of separate sale, you can convert SSI to parallel data. So you can get the data in the I/O unit. The inside probe element can be detached from the outer housing, and with the captive software (GPM), zero and gain adjustment is possible at user side.

• CE marking
• Noise cancellation
• GPM setting

Specifications

Model No.

Dimensions

Probe

Cable connection

Detachable probe element

Cable

• shield should be connected to FG of user’s unit.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYSE-Q-PF Probe

Quasi-incremental output
(detachable probe element)

This is the linear profile version of GYSE-Q. It has the incremental output (A/B pulse), the resolution is Min.1μm (Quad divide). The working principle is based on a sampling detection method, in which pulse frequency is fixed to 250kHz or 500kHz (it depends on resolution). GYSE-Q doesn’t output the pulse which continued like a linear encoder, so please be careful. The inside probe element can be detached from the outer housing, and with the captive software (GPM), zero and gain adjustment is possible at user side.

• CE marking
• Noise cancellation
• GPM setting

Specifications

Model No.

① Effective stroke
15〜7500mm

② Head dead zone
50 :50mm (Std.)
□ :□mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

③ Tip dead zone
70 :70mm(Std.)
□ :□mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

④ Associated magnet
PFU :PFU slide magnet
FE :No.5N-UK
BP :No.5PFT-LG
M11N : No.11N
M11S : No.11S

・Please consult our factory in case of requesting special magnet.
・This model code means only specifying associated magnet.
・Ordering magnet individually.

⑤ Cable connection
8P:connector (M12-8pin)
△G□F:pigtail / cable end : free
△G□A:pigtail / cable end : with connector for relay
(□:cable length(m), Max.10m)(*)
(△:cable type
S:standard, H:high temp. cable, R:robot cable, UL : cUL cable)
CN:existing connector (Please refer to page 115 of option.)

(*) In case of using extension cable sensor cable (m) + extension cable (m) ≦ 100m
・Please confirm extension cable on page 120-122.
・Ordering loose mating connector individually

⑥ Resolution
D2 :0.1mm
D3 :0.05mm
D4 :0.01mm(Std.)
D5 :0.005mm
D7 :0.002mm
D8 :0.001mm

⑦ Direction
D :When magnet moves toward tip, output increase
R :When magnet moves toward tip, output decrease

⑧ Pulse frequency
1:1MHz
2:500kHz(Std. in case of ⑥ resoluton:D7, D8)
3:250kHz(Std. in case of ⑥ resolution:D2〜D5)
4:125kHz
6:31kHz
7:15kHz

・Allowable magnet speed depends on the selected resolution and pulse freq. Allowable speeds for Std. setting are as below.

(*) For the noise cancellation function

⑨ Clamp
F50 :with fixing clamps
N　 :without fixing clamps
・ Standard pcs (depend on stroke) of the clamp are supplied.
Possible to order extra pcs individually.
・ Please refer to page 118 for clamp drawings.

Dimensions

Probe

Cable connection

Detachable probe element

Cable

• shield should be connected to FG of user’s unit.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYSE-A-PF Probe.

High performance analogue output
( detachable probe element )

This is the linear profile version of GYSE-A. It is a high performance analog output probe, and has the high resolution of 16bit. It has also velocity output. Using two pcs of magnet on the probe as another option, detecting each magnet position or relative distance between the two is possible. The inside probe element can be detached from the outer housing, and with the captive software (GPM), zero and gain adjustment is possible at user side.

• CE marking
• Noise cancellation
• GPM setting

Specifications

Model No.

① Effective stroke
15〜7500mm

② Head dead zone
50 :50mm (Std.)
□ :□mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

③ Tip dead zone
70 :70mm(Std.)
□ :□mm (option) (specified by customers)
・Possible Min. length depends on the selected magnet or float.

④ Associated magnet
PFU :PFU slide magnet
FE :No.5N-UK
BP :No.5PFT-LG
M11N :No.11N
M11S :No.11S

・Please consult if you select a magnet of other than above.
・This Model code means only specifying associated magnet.
・When you need a magnet, please order separately.

⑤ Cable connection
8P:connector
△G□F :pigtail / cable end : free
△G□A :pigtail / cable end : with connector for relay
(□ :cable length(m)、Max.10m)(*)
(△ :cable type
S:standard, H:high temp. cable, R:robot cable, UL : cUL cable)
CN:existing connector (Please refer to P.109 of option.)

(*) In case of using extension cable
Voltage output : sensor cable (m) + extension cable (m) ≦ 10m
Current output : sensor cable (m) + extension cable (m) ≦ 100m
・Please confirm extension cable on page 120-122.
・Ordering loose mating connector individually.

⑥ Position output(OUT1)
AD :0〜10V(When magnet moves toward tip, output increase)
AR :10〜0V(When magnet moves toward tip, output decrease)
BD :4〜20mA(When magnet moves toward tip, output increase)
BR :20〜4mA(When magnet moves toward tip, output decrease)
CD□□ :bipolar output(-□V〜+□V)
(for example CD10:-10V〜+10V)
CR□□ :bipolar output(+□V〜-□V)
(for example CR05:+5V〜-5V)
V Z/F :option (specified voltage)
(for example V1/5:1〜5V, V9.5/0.5:9.5〜0.5V)
I Z/F :option (specified current)
(for example I5.2/20:5.2〜20mA, I18/5:18〜5mA)

【 Z=output at zero position, F=output at full position 】

⑦ Option : Analogue output(OUT2)
・N :without option (Std.)
・Position output :select from ⑥
・Velocity output(Note1)
VA[　　]:±10V
WB[　　]:4〜20mA
[　　]:max. velocity(1.00〜999 mm/s)

(Note1)
VA : When magnet stops, output is 0V. When moving toward probe tip, +10V.
WB : When magnet stops, output is 4mA. When moving in any direction, 20mA.

⑧ Option
blank :without option
X2 :2kHz sampling (total body length : Max. 700mm)
X3 :3kHz sampling (total body length : Max. 500mm)
X4 :3.75kHz sampling (total body length : Max. 400mm)

⑨ Clamp
F50 :with fixing clamps
N :without fixing clamps

⑩ Two Magnets Option
A :one magnet (STD)
A2MR :two magnets (relative distance between the two)(*)
A2ME :wo magnets (each magnet position)(*)
(Please consult factory)

(*) 2 magnets option
・ Min. proximity distance between magnets is 75mm.
(Min. proximity distance between magnets varies depending on the magnet type.)
・ When using other magnets, please consult our factory.

In case of connector type, connector dimensions are different from the existing product.
Please refer to page 115 for the existing one (LEMO).
・Connector (M12-8pin) : Amphenol
(materials: glass fiber reinforced plastic)

Dimensions

Probe

Detachable probe elementCable

• shield should be connected to FG of user’s unit.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYMRA-PF Probe

Flat head type, analogue output
(detachable probe element)

This is the linear profile version of GYMRA. The output is voltage or current. The inside probe element can be detached from the outer housing, and with the captive software (GPM), zero and gain adjustment is possible at user side.

• Noise cancellation
• GPM setting

Specifications

Model No.

Dimensions

Probe

Detachable probe element

Cable

Shield should be connected with 0V at user side.
In case you select the voltage output, you can’t use the brown and black wires.
In case you select the current output, you can’t use the blue and green wires.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYHR Probe.

High ambient temperature

GYHR probe is designed to operate at high ambient temperatures up to 100°C, including sensor head. Electronic parts inside are minimized, yet provide high performance and reliability in the application. Cable used has reinforced silicon rubber sheath which stands ambient temperatures up to 150°C. Max cable extension is 100m.
◆ Associated controller

• Analogue output :GYHC
  
• Digital output :GYDC-S1 , GYDC-05
  
• IRDS-GY : When using the IRDM, you can connect with CC-Link, CC-Link IE Field, PROFIBUS, EtherNet/IP, and EtherCAT.
  
• DC-Q : MELSEC-Q built-in unit

Specifications

Model No.

Dimensions

Probe

Cable

• shield should be connected to shield terminal of the controller.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.+

GYHTR Probe

High ambient temperature (120℃)
high accuracy type(detachable probe element)

GYHTR probe is designed to operate at high ambient temperature up to 120°C, including sensor head. Between probe and controller, RS-422 differential line driver transmission, providing robustness against electrical noise, is used. The inside probe element can be detached from the outer housing.

◆ Associated controller

• Analogue output :GYHC
• Digital output :GYDC-S1 , GYDC-05
• IRDS-GY : When using the IRDM, you can connect with CC-Link, CC-Link IE Field, PROFIBUS, EtherNet/IP, and EtherCAT.
• DC-Q : MELSEC-Q built-in unit

Specifications

Model No.

① Effective stroke
15〜1000mm

② Head dead zone
50 : 50mm (Std.)
□ : □mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

③ Tip dead zone
□ : 70mm/ 90mm/ 100mm(Std.)

□:□mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

④ Thread / Rod diameter
M :M24xP1.0, rod Φ10 (Std.)
N :M18xP1.5, rod Φ10
U :3/4-16UNF-3A, rod Φ10
M8 :M24xP1.0, rod Φ8
N8 :M18xP1.5, rod Φ8
U8 :3/4-16UNF-3A, rod Φ8
M14 :M24xP1.0, rod Φ13.8
Z :Probe inside element only (without outer housing)

⑤ Associated magnet or float

・Please consult our factory in case of requesting special magnet or float.
・This model code means only specifying associated magnet or float.
・Ordering magnet or float individually.

⑥Cable connection
HG□F : pigtail / cable end : free
HG□A : pigtail / cable end : with connector for relay
(Operating temp. range of relay connector is max. +80°C)
(□ : cable length(m)、Max.10m)(*)

(*) In case of using extension cable
sensor cable (m) + extension cable (m) ≦ 200m
・Please confirm extension cable on page 120〜122.

⑦ Output
00:depends on external controller

⑧ Option
blank :without option
SRT :SRT option
・Please confirm the details of options on page 114.

Dimensions

Probe

Detachable probe element

Cable

• shield should be connected to shield terminal of the controller.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYFRS Probe.

Flange-head Robust type

GYFRS probe is the robust type against vibration and shock. Vibration proof (10G) and shock proof (200G) are available. Between probe and controller, RS-422 differential line driver transmission, providing robustness against electrical noise, is used. In combination with a digital output controller, Min.1μm resolution is possible. A thin type head enabled to miniaturize equipment, and flange installation improved workability compared with a conventional screw.
◆ Associated controller

• Analogue output:GYHC
• Digital output:GYDC-S1, GYDC-05
• IRDS-GY : When using the IRDM, you can connect with CC-Link, CC-Link IE Field, PROFIBUS, EtherNet/IP, and EtherCAT.
• DC-Q : MELSEC-Q built-in unit

Specifications

Model No.

① Effective stroke
15〜3500mm

② Head dead zone
50:50mm (Std.)
□:□mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

③ Tip dead zone
S : 70mm/ 90mm/ 100mm(Std.)

□:□mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

④ Thread / Rod diameter
F : flange, rod Φ10 (Std.)

⑤ Associated magnet or float

・Selecting magnet from page 116〜118(GG)．
・Please consult our factory in case of requesting special magnet or float.
・This model code means only specifying associated magnet or float.
・Ordering magnet or float individually.

⑥ Cable connection
CN : connector
△G□F :pigtail / cable end : free
△G□A :pigtail / cable end : with connector for relay
△G□FC :pigtail / cable end : with connector for GYFC2/3
( □ :cable length (m)、Max.10m ) (*)
( △ :cable type
S :standard, H:high temp. cable, R:robot cable, UL : cUL cable)

＜Water proof option＞(recommendation : pigtail (WP3G))
WPCN　:submersible connector type
WP3G□F:pigtail / cable end : free
WP3G□A:pigtail / cable end : with connector for relay
WP3G□FC:pigtail / cable end : with connector for GYFC2/3
(□:cable length(m)、Max.10m)(*)

・Page 113 shows the detailed information.
(*) In case of using extension cable
sensor cable (m) + extension cable (m) ≦ 200m
・Please confirm extension cable on page 120〜122.
・Ordering loose mating connector individually.

⑦ Output
00:depends on external controller

Dimensions

Connector type

Pigtail type

Cable

• shield should be connected to shield terminal of the controller.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYMR5 Probe.

High performance pan cake type

GYMR5 probe is the pan cake type which put the thickness of the head part in 36mm. Applying to hydraulic cylinder, its total length becomes space saving. Between probe and controller, RS-422 differential line driver transmission, providing robustness against electrical noise, is used. In combination with a digital output controller, Min.1μm resolution is possible. Please consider GYMR6 in a new inquiry.
◆ Associated controller

• Analogue output :GYHC , GYFC2/3
• Digital output :GYDC-S1, GYDC-05

Specifications

Model No.

① Effective stroke
15〜2000mm

② Head dead zone
50 : 50mm (Std.)
□ : □mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

③ Tip dead zone
□ : 70mm/ 90mm/ 100mm(Std.)

□ : □mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

④ Thread / Rod diameter
K8 :M16xP1.5 rod Φ8 (Std.)
M :M24xP1.0, rod Φ10
N :M18xP1.5, rod Φ10
・In case of stroke longer than 1001mm,rod Φ10 would be recommended.

⑤ Associated magnet or float

・Selecting magnet from page 116〜118(GG)．
・Please consult our factory in case of requesting special magnet or float.
・This model code means only specifying associated magnet or float.
・Ordering magnet or float individually.

⑥ Cable connection
△G□F :pigtail / cable end : free
△G□A :pigtail / cable end : with connector for relay
△G□FC :pigtail / cable end : with connector for GYFC2/3
( □ :cable length (m)、Max.10m ) (*)
( △ :cable type　S :standard, R :robot cable )

(*) In case of using extension cable
sensor cable (m) + extension cable (m) ≦ 200m
・Please confirm extension cable on page 120〜22.

⑦ Output
00:depends on external controller

Dimensions

Probe

Cable

• shield should be connected to shield terminal of the controller.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYcRP Probe.

High performance probe

Between probe and controller, RS-422 differential line driver transmission, providing robustness against electrical noise, is used. In combination with a digital output controller, Min.1μm resolution is possible. SRT option and probe rod 200°C option are available.

◆ Associated controller

• Analogue output:GYHC
• Digital output:GYDC-S1, GYDC-05
• IRDS-GY : When using the IRDM, you can connect with CC-Link, CC-Link IE Field, PROFIBUS, EtherNet/IP, and EtherCAT.
• DC-Q (page 60) : MELSEC-Q built-in unit

Specifications

Model No.

① Effective stroke
15〜5200mm

② Head dead zone
50 :50mm (Std.)
□ :□mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

③ Tip dead zone
□ : 70mm/ 90mm/ 100mm (Std.)

□:□mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.
④ Thread / Rod diameter
M :M24xP1.0, rod Φ10 (Std.)
N :M18xP1.5, rod Φ10
U :3/4-16UNF-3A, rod Φ10
M8 :M24xP1.0, rod Φ8
N8 :M18xP1.5, rod Φ8
U8 :3/4-16UNF-3A, rod Φ8
M14 :M24xP1.0, rod Φ13.8

⑤ Associated magnet or float

・Please consult if you select a magnet or a float of other than above.
・This Model code means only specifying associated magnet or float.
・When you need a magnet or float, please order separately.

⑥ Cable connection
CN :connector
△G□F :pigtail / cable end : free
△G□A :pigtail / cable end : with connector for relay
△G□FC :pigtail / cable end : with connector for GYFC2/3
( □ :cable length (m)、Max.10m ) (*)
( △ :cable type
S :standard, H :high temp. cable, R :robot cable, UL :cUL cable)

＜Water proof option＞(recommendation : pigtail (WP3G))
WPCN　:submersible connector type
WP3G□F :pigtail / cable end : free
WP3G□A :pigtail / cable end : with connector for relay
WP3G□FC :pigtail / cable end : with connector for GYFC2/3
(□: cable length(m)、Max.10m)(*)

・Page 113 shows the detailed information
(*) In case of using extension cable
sensor cable (m) + extension cable (m) ≦ 200m
・Mating connectors are not included.
If you Mating connectors, please specify separately.
(Straight or L-shaped connectors can be selected.)

⑦ Output
00:depends on external controller

⑧ Option
blank : without option
SRT : SRT option (Recommended: pigtail type)
H0 : High temp. rod (100°C for rod only)
H1E : High temp. rod (120°C for rod only, with heat sink)
H2E : High temp. rod (200°C for rod only, with heat sink)

・Please confirm the details of options on page 112-114.

Dimensions

Probe

Pigtail type

Cable

• shield should be connected to shield terminal of the controller.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYcRS Probe.

High performance probe

Between probe and controller, RS-422 differential line driver transmission, providing robustness against electricalnoise, is used. In combination with a digital output controller, Min.1μm resolution is possible.
◆ Associated controller

• Analogue output :GYHC , GYFC2/3
• Digital output :GYDC-S1 , GYDC-05
• IRDS-GY : When using the IRDM, you can connect with CC-Link, CC-Link IE Field, PROFIBUS, EtherNet/IP, and EtherCAT.
• DC-Q : MELSEC-Q built-in unit

Specifications

Model No.

① Effective stroke
15〜7500mm

② Head dead zone
50 :50mm (Std.)
□ :□mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

③ Tip dead zone
□ : 70mm/ 90mm/ 100mm (Std.)

□ : □mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.
④ Thread / Rod diameter
M :M24xP1.0, rod Φ10(Std.)
N :M18xP1.5, rod Φ10
U :3/4-16UNF-3A, rod Φ10
M8 :M24xP1.0, rod Φ8
N8 :M18xP1.5, rod Φ8
U8 :3/4-16UNF-3A, rod Φ8
M14 :M24xP1.0, rod Φ13.8
⑤ Associated magnet or float

・Selecting magnet from page 116〜118(GG)．
・Please consult our factory in case of requesting special magnet or float.
・This model code means only specifying associated magnet or float.
・Ordering magnet or float individually.

⑥ Cable connection
CN :connector
△G□F :pigtail / cable end : free
△G□A :pigtail / cable end : with connector for relay
△G□FC :pigtail / cable end : with connector for GYFC2/3
( □ :cable length (m)、Max.10m ) (*)
( △ :cable type
S :standard, H :high temp. cable, R :robot cable, UL :cUL cable)

＜Water proof option＞(recommendation : pigtail (WP3G))
WPCN　:submersible connector type
WP3G□F :pigtail / cable end : free
WP3G□A :pigtail / cable end : with connector for relay
WP3G□FC:pigtail / cable end : with connector for GYFC2/3
(□:cable length(m)、Max.10m)(*)

・Page 113 shows the detailed information

(*) In case of using extension cable
sensor cable (m) + extension cable (m) ≦ 200m
・Mating connectors are not included.
・Please confirm extension cable on page 120〜122.
・Ordering loose mating connector individually.

⑦ Output
00:depends on external controller

Dimensions

Probe

Pigtail type

Cable

• shield should be connected to shield terminal of the controller.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYSE-R Probe.

High accuracy type
(detachable probe element)

Between probe and controller, RS-422 differential line driver transmission, providing robustness against electrical noise, is used. In combination with a digital output controller, Min.1μm resolution is possible. The inside probe element can be detached from the outer housing. And by auto calibration function, a difference in the output when you change the probe is adjusted automatically.
◆ Associated controller

• Analogue output : GYHC
• Digital output : GYDC-S1, GYDC-05
• IRDS-GY : When using the IRDM, you can connect with CC-Link, CC-Link IE Field, PROFIBUS, EtherNet/IP, and EtherCAT.
• DC-Q : MELSEC-Q built-in unit

Specifications

• The above mentioned accuracy applies to sensors with an effective stroke of 300mm or more.
• The specification of stroke less than 300mm is equal that of stroke 300mm.

Model No.

① Effective stroke
15〜7500mm

② Head dead zone
S :50mm (Std.)
□ :□mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

③ Tip dead zone
S:70mm/ 90mm/ 100mm(Std.)

□:□mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

④ Thread / Rod diameter
M :M24xP1.0, rod Φ10(Std.)
N :M18xP1.5, rod Φ10
U :3/4-16UNF-3A, rod Φ10
M8 :M24xP1.0, rod Φ8
N8 :M18xP1.5, rod Φ8
U8 :3/4-16UNF-3A, rod Φ8
M14 :M24xP1.0, rod Φ13.8
Z　　:Probe inside element only (without outer housing)

⑤ Associated magnet or float

・Selecting magnet from page 116〜118(GG)．
・Please consult our factory in case of requesting special magnet or float.
・This model code means only specifying associated magnet or float.
・Ordering magnet or float individually.

⑥ Cable connection
8P : Connector(M12-8pin)
△G□F : pigtail / cable end : free
△G□A : pigtail / cable end : with connector for relay
(□ : cable length(m)、Max.10m)(*)
(△ : cable type
S : standard, H:high temp. cable, R:robot cable, UL : cUL cable)
CN: existing connector (Please refer to page 115 of option.)

(*) In case of using extension cable
sensor cable (m) + extension cable (m) ≦ 200m
・Please confirm extension cable on page 120〜122.
・Ordering loose mating connector individually.

⑦ Output
00:depends on external controller

⑧ Option
blank :without option
SRT :SRT option

・Please confirm the details of SRT option on page 114.

Dimensions

Probe

Detachable probe element

Connector & Pigtail

Cable

• shield should be connected to FG of user’s unit.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYPMR Probe.

Compact head

GYPMR probe has been developed as the most compact head type.
Applying to hydraulic cylinder, its total length becomes space saving.

◆Associated controller

• Analogue output:GYHC
• Digital output:GYDC-S1, GYDC-05
• IRDS-GY : When using the IRDM, you can connect with CC-Link, CC-Link IE Field, PROFIBUS, EtherNet/IP, and EtherCAT.

Specifications

Model No.

Dimensions

Probe

No.178 magnet

Cable (robot cable)

• shield should be connected to shield terminal of the controller.

Installation example

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYMR6 Probe.

High accuracy flat head type
(detachable probe element)

GYMR6 probe is the flat head type, high accuracy probe which put the thickness of the head part of a GYSE probe in 48.5mm by the latest circuit design. Between probe and controller, RS-422 differential line driver transmission, providing robustness against electrical noise, is used. In combination with a digital output controller, Min.1μm resolution is possible. The inside probe element can be detached from the outer housing. And by auto calibration function, difference in the output when you exchange the probe is adjusted automatically.

◆Associated controller

• Analogue output:GYHC, GYFC2 / 3
• Digital output:GYDC-S1, GYDC-05
• IRDS-GY : When using the IRDM, you can connect with CC-Link, CC-Link IE Field, PROFIBUS, EtherNet/IP, and EtherCAT.
• DC-Q : MELSEC-Q built-in unit

Specifications

Model No.

① Effective stroke
15〜7500mm

② Head dead zone
50:50mm (Std.)
□:□mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

③ Tip dead zone
□:70mm/ 90mm/ 100mm(Std.)

□ :□mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

④ Thread / Rod diameter
M :M24xP1.0, rod Φ10(Std.)
N :M18xP1.5, rod Φ10
U :3/4-16UNF-3A, rod Φ10
M8 :M24xP1.0, rod Φ8
N8 :M18xP1.5, rod Φ8
U8 :3/4-16UNF-3A, rod Φ8
M14 :M24xP1.0, rod Φ13.8
Z 　:Probe inside element only (without outer housing)

⑤ Associated magnet or float

・Selecting magnet from page 116〜118(GG)．
・Please consult our factory in case of requesting special magnet or float.
・This model code means only specifying associated magnet or float.
・Ordering magnet or float individually.

⑥ Cable connection
△G□F :pigtail / cable end : free
△G□A :pigtail / cable end : with connector for relay
△G□FC :pigtail / cable end : with connector for GYFC2/3
( □ :cable length (m)、Max.10m ) (*)
( △ :cable type
S :standard, H :high temp. cable, R :robot cable, UL :cUL cable)
(*) In case of using extension cable
sensor cable (m) + extension cable (m) ≦ 200m
・Please consider extension cable on page 120〜122.

⑦ Output
00:depends on external controller

⑧ Option
blank :without option
SRT :SRT option
・Please confirm the details of SRT option on page 114.

Dimensions

Probe

Detachable probe element

Cable

• shield should be connected to shield terminal of the controller.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYPE2K Probe.

Probe rod Φ4

The GYPE2K probe is a sensor characterized in a fine rod
and a small head.
A fine rod (outside diameter Φ4) and a small head expand
the design flexibility of the equipment.

◆Associated controller

• Analogue output:GYHC
• Digital output:GYDC-S1, GYDC-05

Specifications

Model No.

Dimensions

Probe

Cable (robot cable)

• shield should be connected to shield terminal of the controller.

Ti float

Because of the float φ16, it is possible to install it in the container with the probe of which thread is M18.

• The M5 screw installed in the rod tip can be used as float stopper or to fix the sensor.
• When the sensor rod part is to be sealed, O ring should be used, refer to detail A drawing.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYPM Probe.

Dead zone 30mm ( thread side )

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYGS Probe.

Pancake head

The sensor head of GYGS probe is extremely thin ( 20mm thick ).
Applying to hydraulic cylinder, its total length becomes space saving.

◆Associated controller
・Analogue output:GYHC
・Digital output:GYDC-S1, GYDC-05
・IRDS-GY : When using the IRDM, you can connect with
CC-Link, CC-Link IE Field, PROFIBUS, EtherNet/IP, and EtherCAT.

Specifications

Model No.

Dimensions

Probe

Cable axial out type

Detail of A section

Cable

Shield should be connected to shield terminal of the controller.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYPS Probe (Analogue / PWM / CANopen/SAEJ1939）

for built-in small hydraulic cylinder

GYPS probe is the sensor for built-in hydraulic cylinder which has analogue output.
The sensor head is compact and the head dead zone is also short, so its total length becomes space saving.
With the dedicated software (GPM), zero and gain adjustment is possible at the user.
Max. effective stroke is 2400mm.

Specifications

Model No.

Dimensions

Probe

M12 receptacle

Installation example

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave..

GYMS Probe.

Compact

The design of GYMS makes the sensor head compact.
Its linearity is ≦±0.025%FS and its protection is IP67.

◆Associated controller
・Analogue output:GYHC
・Digital output:GYDC-S1, GYDC-05
・IRDS-GY : When using the IRDM, you can connect with
CC-Link, CC-Link IE Field, PROFIBUS, EtherNet/IP, and EtherCAT.

Specifications

Model No.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYPD Probe. ( Analogue / PWM / CANopen/SAEJ1939 ）

for built-in small hydraulic cylinder

GYPD probe is the sensor for built-in hydraulic cylinder which has analogue output.
The sensor head is compact and the head dead zone is also short, so its total length becomes space saving.
With the dedicated software (GPM), zero and gain adjustment is possible at the user.

Output methods from sensors include analog (voltage/current) and PWM, CANopen methods.
We have also developed the SEA J1939 method as a new product.
Please contact us if you would like to use the SEA J1939 method.

Specifications

Model No.

Dimensions

Probe

M12 receptacle

Application

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYAF1 Probe.

Flat head, Analogue output

GYAF1 probe is an all-in-one sensor with the flange shape.
You can get a voltage or current analog signal proportional to magnet position only by applying a 24VDC power supply directly to it.
Reversed output or bipolar output can be supported as well.
The flat head permits a miniaturized application, and the flange makes the installation easier, compared with the conventional screw type probes.

Specifications

Model No.

Dimensions

Connector type (Code :CN)

Pigtail type (Code: G※)

Cable

Shield should be connected with 0V at user side.

Note

Connector type
CN : Sanwa SNW-1607-PCF (Material: zinc alloy fluoroplastic),
WPCN : Tajimi TC1108-12A10-7F(8,6) (Material: brass with Ni plating)

Suitable cable diameter: Φ6.6 ~ Φ7.5 (Model code: G*), Wire size: ≤ 0.5mm²

The figure in ＜＞ is the figure of IP68 type (WPCN, WP3G＊).
Applicable O ring type is P=14. Back-up ring is strongly suggested in usage.
Water proof option (WP3G＊) has a protection tube.
Please refer the dimensions on page 113.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYcAT4 Probe.

Analogue output
( replacement model for GYLT, GYLS )

Replacement model for GYLS (0〜10V) or GYLT (4〜20mA).
The linearity is changed to 0.05%FS from 0.025%FS, so please be careful.
GYcAT4 doesn’t have alarm output.
Please consider GYcAT (page 16〜17) in a new inquiry.
By the option, it is available with the High speed sampling, and High temperature (rod parts only).

• CE marking
• Noise cancellation

Specifications

Model No.

Dimensions

Probe

Connector & Pigtail

Cable

Shield should be connected to 0V at user side.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYcAT Probe.

Standard analogue output

You can get a voltage or current analog signal proportional to magnet position only by applying a 24VDC power supply directly to GYcAT.
It has alarm output and is equipped with noise cancellation functions.
By the option, it is available with the high speed sampling, SRT, and high temperature (rod parts only).

• CE marking
• Noise cancellation

Specifications

Model No.

Dimensions

Probe

Pigtail type

Cable

Shield should be connected to 0V at user side.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYSE-EP2 Probe

EtherNet/IP interface
（ detachable probe element ）

GYSE-EP2 is EtherNet/IP interface.
It is an adapter device that outputs position/velocity of magnets via EtherNet/IP.
Detecting up to 20 pcs of magnets on one probe is possible.
The inside probe element can be detached from the outer housing.

• Noise Cancellation

Specifications

Model No.

Dimensions

Probe

Connector

Detachable probe element

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYSE-P Probe.

Profibus DP interface (detachable probe element）

GYSE-P is PROFIBUS interface type.
Setting parameters (resolution, output direction) through PROFIBUS is possible.
GSD file is available on SANTEST web site.
Detecting up to 32 pcs of magnets on one probe is possible.
When you use a PROFIBUS master simulator of separate sale, it’s possible to confirm the data and to set up a PROFIBUS slave from a PC without PROFIBUS master (usually, PLC).

• CE marking
• Noise cancellation

Specifications

Model No.

① Effective stroke
15〜7500mm

② Head dead zone
50: 50mm(Std.)
□: □mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

③ Tip dead zone
□: 70mm/ 90mm/ 100mm ( Std.)

④ Thread / Rod diameter
N :M18xP1.5, rod Φ10 (Std.)
M :M24xP1.0, rod Φ10
M14 :M24xP1.0, rod Φ13.8

⑤ Associated magnet or float

・Selecting magnet from page 116〜118(GG)．
・Please consult our factory in case of requesting special magnet or float.
・This model code means only specifying associated magnet or float.
・Ordering magnet or float individually.

⑥ Cable connection
CN :connector ( Std.)

⑦ Option
blank :without option
SRT :SRT option
L :linearization option (≦0.006％ FS Typ.)
2M : temperature compensation (≦±7ppmFS / °C)
2ML : temperature compensation + linearization

・Please confirm the details of SRT option on page 114.

Dimensions

Probe

Profibus Connector

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYSE-S Probe.

SSI output ( detachable probe element )

GYSE-S probe outputs displacement of the magnet as SSI (Synchronous Serial Interface).
SSI is output of a serial communication-type and outputs the position data of 24 〜 27bit.
When using SSPC-03 of separate sale, you can convert SSI to parallel data.
So you can get the data in the I/O unit.
The inside probe element can be detached from the outer housing, and with the captive software (GPM), zero and gain adjustment is possible at user side.

• CE marking
• Noise cancellation
• GPM setting

Specifications

Model No.

① Effective stroke
15〜7500mm

② Head dead zone
50 :50mm (Std.)
□ :□mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

③ Tip dead zone
□:70mm/ 90mm/ 100mm(Std.)
・S (Std. length) depends on the selected magnet or float in ⑤.

□ :□mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

④ Thread / Rod diameter
M :M24xP1.0, rod Φ10(Std.)
N :M18xP1.5, rod Φ10
U :3/4-16UNF-3A, rod Φ10
M8 :M24xP1.0, rod Φ8
N8 :M18xP1.5, rod Φ8
U8 :3/4-16UNF-3A, rod Φ8
M14 :M24xP1.0, rod Φ13.8
Z　 :Probe inside element only (without outer housing)

⑤ Associated magnet or float

・Selecting magnet from page 116〜118(GG)．
・Please consult our factory in case of requesting special magnet or float.
・This model code means only specifying associated magnet or float.
・Ordering magnet or float individually.

⑥ Cable connection
8P:Connector (M12-8pin)
△G□F:pigtail / cable end : free
△G□A:pigtail / cable end : with connector for relay
(□:cable length(m)、Max.10m)(*)
(△:cable type
S:standard, H:high temp. cable, R:robot cable, UL:cUL cable)
CN:existing connector (Please refer to page 115 of option.)

(*) In case of cable 10m or more, please use extension cable.
・Please confirm extension cable on page 120-122.
・Ordering loose mating connector individually.

⑦ Resolution
D2:0.1mm
D3:0.05mm
D4:0.01mm (Std.)
D5:0.005mm
D7:0.002mm
D8:0.001mm
DF:0.5μm
DG:0.2μm
DH:0.1μm

⑧ Linearity option
blank:without option
L : Linearization option (at room temperature).

⑨ Direction
D:When magnet moves toward tip, output increase
R:When magnet moves toward tip, output decrease

⑩ Number of bits
4:24bit (Std.)
5:25bit
6:26bit
7:27bit

⑪ Output code
B:Binary(Std.)
G:Gray

⑫ Synchronous
5A:asynchronous SSI
5S:synchronous SSI

⑬ Option
blank:without option
SRT:SRT option (Recommendation:pigtail type)
・Please confirm the details of SRT option on page 114.

High-frequency sampling:
Only when “5A (asynchronous)” is selected in ⑫.
X2:2kHz sampling (total rod length : Max.700mm)
X3:3kHz sampling (total rod length : Max.500mm)
X4:3.75kHz sampling (total rod length : Max.400mm)

Dimensions

Probe

Detachable probe element

Connecter & Pigtail

Cable

Shield should be connected to FG of user’s unit.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYSE-Q Probe.

Quasi-incremental output （detachable probe element）

GYSE-Q probe has the incremental output (A/B pulse), the resolution is Min.1μm (Quad divide).
The working principle is based on a sampling detection method, in which pulse frequency is fixed to 250kHz or 500kHz (it depends on resolution).
GYSE-Q doesn’t output the pulse which continued like a linear encoder, so please be careful.
The inside probe element can be detached from the outer housing, and with the captive software (GPM), zero and gain adjustment is possible at user side.

• CE marking
• Noise cancellation
• GPM setting

Specifications

Model No.

① Effective stroke
15〜7500mm

② Head dead zone
50 : 50mm ( Std. )
□ : □mm ( option ) ( specified by customers )
・Possible Min. length depends on the selected magnet or float.

③ Tip dead zone
□ : 70mm/ 90mm/ 100mm ( Std. )

・Possible Min. length depends on the selected magnet or float.
□ : □mm ( option ) ( specified by customers )

④ Thread / Rod diameter
M : M24xP1.0, rod Φ10 (Std.)
N : M18xP1.5, rod Φ10
U : 3/4-16UNF-3A, rod Φ10
M8 : M24xP1.0, rod Φ8
N8 : M18xP1.5, rod Φ8
U8 : 3/4-16UNF-3A, rod Φ8
M14: M24xP1.0, rod Φ13.8
Z : Probe inside element only (without outer housing)

⑤ Associated magnet or float

・Selecting magnet from page 116〜118(GG)．
・Please consult our factory in case of requesting special magnet or float.
・This model code means only specifying associated magnet or float.
・Ordering magnet or float individually.

⑥ Cable connection
8P:connector(M12-8pin)
△G□F:pigtail / cable end : free
△G□A:pigtail / cable end : with connector for relay
(□:cable length(m)、Max.10m)(*)
(△:cable type
S:standard, H:high temp. cable, R:robot cable, UL:cUL cable)
CN:existing connector (Please refer to page 115 of option.)

(*) In case of using extension cable sensor cable (m) + extension cable (m) ≦ 100m
・Please confirm extension cable on page 120〜122.
・Ordering loose mating connector individually.

⑦ Resolution
D2:0.1mm
D3:0.05mm
D4:0.01mm (Std.)
D5:0.005mm
D7:0.002mm
D8:0.001mm

⑧ Direction
D :When magnet moves toward tip, output increase
R :When magnet moves toward tip, output decrease

⑨ Pulse frequency
1:1MHz
2:500kHz( Std. in case of ⑦ resoluton:D7, D8 )
3:250kHz( Std. in case of ⑦ resolution:D2〜D5 )
4:125kHz
6:31kHz
7:15kHz
・Allowable magnet speed depends on the selected resolution and pulse freq.
Allowable speeds for Std. setting are as below.

* ( For the noise cancellation function )

⑩ Option
blank :without option
SRT:SRT option ( Recommendation : pigtail type )

・Please confirm the details of option on page 114.

Dimensions

Probe

Detachable probe element

Connector ＆ Pigtail type

Cable

Shield should be connected to FG of user’s unit.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYSE-A Probe.

High performance analogue output （detachable probe element）

GYSE-A is a high performance analog output probe, and has the high resolution of 16bit.
It has also velocity output.
Using two pcs of magnet on the probe as another option, detecting each magnet position or relative distance between the twois possible.
The inside probe element can be detached from the outer housing, and with the captive software (GPM), zero and gain adjustment is possible at user side.
The sensor inside element flexible option is available and also most suitable for the exchange when space is small.

• CE marking
• Noise cancellation
• GPM setting

Specifications

Model No.

Dimensions

Probe

Detachable probe element

Connector / Pigtail

Cable

Shield should be connected to FG of user’s unit.

In case of connector type, connector dimensions are different from the existing product.
Please refer to page 109 for the existing one.

・materials ; Probe head : Al alloy, Probe rod : SS304
・magnet : Select one from group GG on page 110
・The tip dead zone length depends on the selected magnet or float.
・connector : Amphenol (materials : glass fiber reinforced plastic)
・Suitable cable diameter:Φ4.0〜Φ7.0、Wire size:0.14〜0.82mm2.
・cable length ; Max.10m (0〜10V output), Max.100m (4〜20mA output)

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYMA Probe.

Compact analogue output (4〜20mA only)

GYMA has the same appearance as GYMS (compact head)
and is all-in-one series.
We achieved downsizing of all-in-one series by the latest circuit design.
GYMA has high reliability with IP67 like GYMS.
Only 4〜20mA output is available.

• Noise cancellation
• GPM setting

Specifications

Model No.

Dimensions

Probe

Connector

GYMA applicable cables and wires

Applicable cable outer diameter

• 4 core : about φ5mm
• 5 core : about φ5.8mm

Applicable Wire Size Outer Diameter

• 4 core : 0.54mm
• 5 core : 0.54mm

Connector tables

Voltage output (connector)

Shield should be connected to 0V or frame ground by the user.

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYMRS Probe.

Thin head SSI output (detachable probe element)

Flat head SSI output sensor.
GYMRS probe outputs displacement of the magnet as SSI (Synchronous Serial Interface).
SSI is output of a serial communication-type and outputs the position data of 24〜27bit(Min. resolution 1μm (option 0.1μm)).
When using SSPC-03 of separate sale, you can convert SSI to parallel data. So you can get the data in the I/O unit.
The inside probe element can be detached from the outer housing, and with the captive software (GPM), zero and gain adjustment is possible at user side.

Specifications

Model No.

① Effective stroke
15〜7500mm

② Head dead zone
50: 50mm (Std.)
□: □mm (option)(specified by customers)
・Possible Min. length depends on the selected magnet or float.

③ Tip dead zone
□: 70mm/ 90mm/ 100mm (Std.)

□: □mm(option)(specified by customers)
・Possible Min. length depends on the selected magnet or float.

④ Thread/Rod diameter
M :M24xP1.0, rod Φ10 (Std.)
N :M18xP1.5, rod Φ10
U :3/4-16UNF-3A, rod Φ10
M8 :M24xP1.0, rod Φ8
N8 :M18xP1.5, rod Φ8
U8 :3/4-16UNF-3A, rod Φ8
M14 :M24xP1.0, rod Φ13.8
Z　:EF (flexible element) only (without outer housing)
⑤ Associated magnet or float

・Selecting magnet from page 116-118(GG)．
・Please consult our factory in case of requesting special magnet or float.
・This model code means only specifying associated magnet or float.
・Ordering magnet or float individually.

⑥ Cable connection
△G□F: pigtail / cable end : free
△G□A: pigtail / cable end : with connector for relay
(□: cable length(m)、Max.10m)(*)
(△: cable type
S:standard, H:high temp. cable, R:robot cable, UL : cUL cable)

(*) In case of cable 10m or more, please use extension cable.
・Please confirm extension cable on page 120〜122.

⑦ Resolution
D2: 0.1mm
D3: 0.05mm
D4: 0.01mm (Std.)
D5: 0.005mm
D7: 0.002mm
D8: 0.001mm
DF: 0.5μm
DG: 0.2μm
DH: 0.1μm

⑧ Linearity option
blank: No option required
L 　: Linearity correction option (corrected at room temperature)

⑨ Direction
D: When magnet moves toward tip, output increase
R: When magnet moves toward tip, output decrease

⑩ Number of bits
4: 24bit (Std.)
5: 25bit
6: 26bit
7: 27bit

⑪ Output code
B : Binary (Std.)
G : Gray

⑫ Synchronous
5S: Synchronous SSI

⑬ Option
blank : without option
SRT　:SRT option (pigtail type only)

・Please confirm the details of SRT option on page 114.

Dimensions

Probe

Detachable probe element

Cable

• Shield should be connected to FG of user’s unit.

＜Material＞
Probe(Materials : Probe head : Al alloy, Probe rod : SS304)

Magnetostrictive Displaiacement Transducer

Model GY Series are “Displacement Transducers” employing magnetostrictive phenomena, especially the Wiedemann effect. An ultra-sonic wave is generated by a moving magnet operating near a magnetostrictive wave guide on which the sonic wave propagates up to the head of the transducer.
The propagation time is precisely measured by state of the art technology and then the absolute displacement transducer is operational.

[ Principle ]

The figure shows the fundamental principle of operation.
When a current pulse like A is given to the wave guide, it generates a circumferential magnetic field on the wave guide, then placement of the movable magnet (polarized axially) as shown, only the axial magnetic field of the magnet affecting the wave guide produces a resultant field as indicated by the dotted line.
The vector combination of these two fields produces torsional strain, a phenomenon known as the Wiedemann Effect.
It is a form of vibration and propagates along the wave guide in the form of a transverse ultra-sonic wave.
The GY series displacement transducers detect the propagation time of the ultra-sonic wave.

GYMRA Probe.

Flat head type, analogue output (detachable probe element)

GYMRA probe is the flat head type, analog output sensor which put the thickness of the head part of a GYSE probe in 48.5mm by the latest circuit design.
The output is voltage or current.
With the captive software (GPM), zero and gain adjustment is possible at the user.
The sensor inside element flexible option is available and also most suitable for the exchange when space is small.

• Noise cancellation
  GPM setting

Specifications

Specifications

This is a slave module for function generation of IRD series.
It generates several kinds of wave signals like sine, cosine, triangle, square and saw wave.
One or Four channel type is available.

［Functions and Features］

• IRDS-WG-1:one channel type
• IRDS-WG-4:four channels type
• Possible to have analogue or digital output from other slave modules in the system. (IRDS-AIO, AO4 and DO)
• The data is transferred to the industrial network through IRD master module. (CC-Link, EtherNet/IP, PROFIBUS)
• Possible to set or change the inside parameters through IRD master module over host industrial network or the dedicated Windows software (IRD Manager).
• Possible to generate any kinds of wave signals as above in IRDS-WG inside through IRD master module over host industrial network or the dedicated software (IRD Manager), or to generate wave signals through SD card (CSV file).
• Possible to make max. 12,000 points wave if you save the dedicated memory card.
• Function generator : sine, cosine, triangle, square or saw wave.
• Possible to add the slope of the amplitude of starting / stopping to the external wave which is acquired.
• Possible to combine two signals for the same wave.
• SYNC output : Possible to count up the wave which is synchronized with generated wave.
• External clock input / output : Possible to synchronize some IRDS-WG or to be synchronized with the external clock.
• RoHS compliant

This is a slave module for the servo controller (Simple Adaptive Control) for hydraulic or pneumatic of IRD series.
High accuracy position or load control for hydraulic or pneumatic cylinder can be built up easily.

［Functions and Features］

• The data is transferred to the industrial network through IRD master module. (CC-Link, EtherNet/IP, PROFIBUS)
• Adopting Simple Adaptive Control (SAC) theory among other modern control theories, achieved robust control compensating automatically parameter change and time-variant influence in the plant.
• Servo calculation is 5kHz(Standard) or 20kHz(Option) with inside DSP and it is independent of cycle time of host system.
• As having analogue input ports for feedback and command, it is possible to replace with existing analogue servo system.
• Automatic transfer function : capable of acquiring feedback signal of various sensor from other IRDS slave module directly.
• Capable of switching position control and load control in operation by using 2 pcs of IRDS-SC.
• Alarm : upper and lower limit of sensor, alarm of servo deviation and oscillation
• Self diagnosis function : internal IC error, cable error, sensor data error.
• RoHS compliant

This is a slave module for the servo controller (Simple Adaptive Control) for hydraulic or pneumatic of IRD series.
High accuracy position or load control for hydraulic or pneumatic cylinder can be built up easily.

［Functions and Features］

• The data is transferred to the industrial network through IRD master module. (CC-Link, EtherNet/IP, PROFIBUS)
• Adopting Simple Adaptive Control (SAC) theory among other modern control theories, achieved robust control compensating automatically parameter change and time-variant influence in the plant.
• Servo calculation is 200μs with inside DSP and it is independent of cycle time of host system.
• Possible to connect GY sensor directly as position feedback and build up high performance position control system with 1μm resolution. And also possible to connect incremental pulse encoder and build up position control system with the encoder’s resolution.
• IRDS-SV is equipped with 2 ports for analogue input and it is possible to apply to load control with one load cell or two pressure sensors.
• Automatic transfer function : it can acquire feedback signal of various sensor from other IRDS slave module directly. And synchronization servo control to other IRDS-SV module is possible.
• Having two axes inside, possible to switch position (GY sensor or incremental pulse) to pressure (load) (analogue) control in operation.
• IRDS-SV is equipped with motion program function.
• Alarm : upper and lower limit of sensor, alarm of servo deviation and oscillation
• Self diagnosis function : internal IC error, cable error, sensor data error.
• RoHS compliant