From our lab to your assembly line, I offer the {DEH OVERSPEED SENSOR} for precise speed monitoring in fleets and industrial equipment. This unit is built for {ODM} collaborations and direct-from {Factory} supply, letting you tailor thresholds, outputs, and housings to your exact spec. I can support flexible interfaces (CAN, RS-485), wide operating temperatures, and IP67 protection, so it stays reliable under vibration and harsh weather. With quick prototyping and rigorous QC, you get predictable lead times and consistent performance. I also provide {ODM} design options, component sourcing, and labeling to fit your branding and compliance needs. Pair it with your safety or telematics system and reap faster integration, lower risk, and better uptime for your customers. If you want a supplier who can scale with your growth, I’m here to help with a direct {Factory} route and transparent pricing.
Across diverse industries, overspeed sensing has moved from a reactive upkeep task to a strategic safeguard. Global buyers are favoring factory-direct sources that deliver high-precision sensors with rugged housings for harsh environments and easy interfaces with PLCs, SCADA, or telemetry systems. The result is faster deployment, fewer field failures, and uptime gains for conveyors, turbines, and gearboxes. Factory-direct excellence means more than price. It brings shorter lead times, direct access to calibration data, streamlined customization, and robust after-sales support. Buyers can expect consistent quality, traceable manufacturing records, and responsive warranty service, while staying compliant with international standards and environmental rules. To maximize value, global buyers should request performance certificates, BOMs, installation guides, and proof of compatibility; inquire about programmable outputs, firmware updates, and service level agreements; and consider training and spare-part availability. With these safeguards, an overspeed program delivers reliable protection, data-driven maintenance, and lower total ownership costs.
| Model | Sensor Type | Measurement Range | Resolution | Accuracy | Sampling Rate | Output Signal | Power (W) | Operating Temp | Certification | Application Notes | Release Date | Country |
|---|---|---|---|---|---|---|---|---|---|---|---|---|
| Model A1 | Hall-effect wheel-speed sensor | 0–320 km/h | 0.1 km/h | ±0.25% | 200 Hz | CAN 2.0B, LIN | 0.8 | -40 to 85 °C | ISO 26262 ASIL-D; IP67 | Rail and high-speed vehicle overspeed monitoring | 2024-02 | Germany |
| Model A2 | Inductive wheel sensor | 0–400 km/h | 0.2 km/h | ±0.5% | 250 Hz | CAN 2.0B, Analog 0–5V | 1.0 | -40 to 85 °C | EN 50126; IP67 | Trackside monitoring systems | 2025-01 | France |
| Model B1 | Optical pulse sensor | 0–300 km/h | 0.1 km/h | ±0.3% | 300 Hz | CAN 2.0B, LIN, 0–5V | 0.9 | -40 to 70 °C | ISO 21434; IP68 | Urban rail and light transit | 2023-11 | USA |
| Model B2 | Lidar-based speed sensor | 0–350 km/h | 0.2 km/h | ±0.6% | 150 Hz | CAN 2.0B, PWM, 0–5V | 1.1 | -40 to 85 °C | ASIL-B; IP69K | High-speed rail safety | 2023-09 | Japan |
| Model C1 | GPS + IMU fusion sensor | 0–320 km/h | 0.05 km/h | ±0.2% | 50 Hz | CAN 2.0B | 0.7 | -20 to 70 °C | ISO 26262 ASIL-C; IP67 | Fleet management and autonomous rails | 2024-07 | Sweden |
| Model D1 | Fiber-optic speed sensor | 0–260 km/h | 0.1 km/h | ±0.4% | 100 Hz | CAN 2.0B, Ethernet | 1.4 | -40 to 85 °C | IEC 61508; IP67 | Non-contact measurement in harsh environments | 2025-03 | Netherlands |