Miniature Torque Sensor for Static Torque, 20Nm-200Nm

Ideal for static torque measurement in transmissions, valves, and hydraulic systems, this miniature torque sensor offers 20Nm to 200Nm multiple ranges, 150% safe overload, -20~80°C operating temperature, optional TEDS, and 5-15V flexible excitation. Buy your precision static torque sensor today.

Specification

Features

1. Optimized for Static Torque Measurement: Specifically designed for static torque applications, ATO miniture torque sensor ensuring high repeatability (0.1% F.S) and consistent measurement results where stability matters most.
2. Excellent Long-Term Stability: The precision torque sensor features low creep and minimal temperature drift, maintaining accurate output over long testing periods and varying environments.
3. Compact Miniature Design: The miniature structure allows this torque sensor to install seamlessly in space-limited systems without compromising performance.
4. Durable Construction: Built with corrosion-resistant aluminum alloy, the static torque sensor supports up to 150% safe overload, ensuring reliable operation in demanding industrial environments.

Dimension (unit: mm)

Wiring Diagram

Tips: Static Torque Sensor vs Dynamic Torque Sensor

A static torque sensor is designed to measure torque in non-rotating or quasi-static conditions, focusing on high stability, low drift, and precise steady-state measurement, making it ideal for applications such as calibration systems, torque wrench testing, valve and actuator torque verification, and other static load scenarios.In contrast, a dynamic torque sensor is built for rotating systems, where it measures torque in real time under motion, emphasizing high-speed signal transmission, rotational compatibility (often via slip rings or wireless telemetry), and fast response to changing torque, commonly used in motors, engines, gearboxes, and drivetrain testing.

When selecting a torque sensor, you may want to consider the following:

• Choose a static torque sensor when torque is applied without continuous rotation and long-term measurement stability is critical.
• Choose a dynamic torque sensor when torque needs to be monitored on a rotating shaft with real-time changes.

In short, static torque sensors prioritize accuracy and stability at rest, while dynamic torque sensors prioritize real-time performance under rotation. The right choice depends on whether your application involves motion or stationary torque measurement.