3D Gyroscope Sensor for Robotics, 1/2/3 Axis

SKU: SUCH-GS-ML728
$676.17
● Output Signal: 4-20mA / 0-20mA ● Resolution: ± 0.001°/s ● Non-linearity: 0.1% of FS ● Waterproof Rating: IP67
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🚚 Free shipping
🕒 Delivery date: 6-12 days
🔁 30-day Returns
Overview

The 3D gyro sensor, available in 1-axis, 2-axis, and 3-axis versions, offers selectable angular velocity ranges of ±50°/s, ±150°/s, and ±300°/s to accommodate different motion dynamics. Featuring an IP67 waterproof and dustproof rating and an aluminum alloy housing with a frosted anodized oxidation finish, the sensor ensures excellent durability, corrosion resistance, and thermal stability for reliable operation in harsh industrial and robotic environments.

Feature

  • The gyroscope sensor features an IP67 protection rating, providing effective resistance against dust ingress and temporary water immersion.
  • The housing is manufactured from aluminum alloy with a frosted anodized oxidation finish, offering enhanced durability, corrosion resistance, and thermal stability.
  • This SUCH sensor provides analog current output signals of 4-20mA or 0-20mA, with output type selectable as an option to meet different system requirements.

Dimension (Unit:mm)

3D gyroscope sensor dimension

Wiring

3D gyroscope sensor wiring

Electrical Connection

6 Pole Receptacle Pins 7 Pole Receptacle Pins Pin Color Gyro Type Signal
1 1 RED Single Axis Gyro VCC
1 1 RED Dual Axis Gyro VCC
1 1 RED 3-Axis Gyro VCC
2 2 BLACK Single Axis Gyro GND
2 2 BLACK Dual Axis Gyro GND
2 2 BLACK 3-Axis Gyro GND
3 3 GREEN Single Axis Gyro RS232(RX)
3 3 GREEN Dual Axis Gyro RS232(RX)
3 3 GREEN 3-Axis Gyro RS232(RX)
4 4 YELLOW Single Axis Gyro RS232(TX)
4 4 YELLOW Dual Axis Gyro RS232(TX)
4 4 YELLOW 3-Axis Gyro RS232(TX)
5 5 WHITE Single Axis Gyro X-axis current signal
5 5 WHITE Dual Axis Gyro X-axis current signal
5 5 WHITE 3-Axis Gyro X-axis current signal
6 6 BROWN Single Axis Gyro NC
6 6 BROWN Dual Axis Gyro Y-axis current signal
6 6 BROWN 3-Axis Gyro Y-axis current signal
/ 7 BLUE Single Axis Gyro NC
/ 7 BLUE Dual Axis Gyro NC
/ 7 BLUE 3-Axis Gyro Z-axis current signal

Axis Direction

3D gyroscope sensor axis direction

Angular Velocity Measurement

3D gyroscope sensor angular velocity measurement

Specs
Angular Velocity Range ±50°/s ±150°/s ±300°/s
Output Signal 4-20mA / 0-20mA (optional)
Angular Velocity Output 1 / 2 / 3 Axis (X, Y, Z optional)
Acquisition Width > 2000Hz
Resolution ±0.001°/s
Non-linearity 0.1% of FS
Temperature Compensation Range -45°C to 85°C
Temperature Drift < ±0.1°/sec < ±0.15°/sec < ±0.2°/sec
Power-up Time 0.5s
Current 6mA
Bias Stability 5°/hr 1σ
MTBF ≥ 45000 hours/times
Shock Resistance 2000g, 2ms, ½ sine
Cable Standard 1.5 meter length, abrasion-resistant, oil-resistant, wide temperature, shielded cable 6*0.3mm2
Connector 6-pin flight plug
Supply Voltage 9-36VDC
Operating Current 35mA
Output Load 0-500kΩ
Operating Temperature -40°C to 85°C
Storage Temperature -55°C to 100°C
Protection Class IP67
Shell Material Aluminum alloy frosted oxidation
Mounting Four head M4 screws
Weight 500g

Note: If you need ±450°/s, ±1200°/s or others angular velocity output, please contact us.

Application
Gyroscope sensor for AGV

AGV

Gyroscope sensor for GPS integration

GPS Integration

Gyroscope sensor for robotics

Robotics

FAQ

Gyroscope drift occurs due to inherent bias errors, noise, and temperature variations. When angular velocity is integrated over time, these small errors accumulate, causing the estimated orientation to deviate from the true orientation. This makes standalone gyroscope-based orientation estimation unsuitable for long-term stability.

Robotic systems typically experience rotation in multiple axes, including yaw, pitch, and roll. Even ground-based robots operating on flat surfaces are affected by uneven terrain, acceleration, deceleration, and mechanical vibrations. A 3-axis gyroscope captures all rotational components, providing more complete motion information and improving the robustness of motion control and attitude estimation.

Yes. The physical mounting orientation determines the relationship between the sensor axes and the robot’s coordinate system. Any mismatch must be corrected in software through axis remapping or coordinate transformation. Incorrect alignment can result in significant errors in attitude estimation and control algorithms.

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