From a practical stand, I provide an Expansion Displacement Sensor that meets the demanding needs of manufacturing lines. As a leading Supplier, I focus on delivering High-Quality sensors with precision, repeatability, and robust construction. Our Expansion Displacement Sensor offers accurate linear displacement measurement across extended ranges, built-in temperature compensation, and easy integration with PLC/SCADA. In my experience, reliability reduces downtime and total cost of ownership. I stock rugged housings, IP67 variants, and sealed connectors, suitable for harsh environments. Calibration is straightforward: zeroing, span check, and traceability to standards. Support includes on-site trials, technical documentation, and a responsive service team. I tailor solutions for OEMs, machine builders, and end users seeking consistent performance and fast delivery. If you need a trusted Supplier who understands displacement sensing, I’ve got you covered. Let me help you optimize your process with precision, durability, and value.
Expansion displacement sensors enable precise monitoring of thermal growth, structural movement, and actuator stroke. A successful application begins with translating requirements into a clear specification: range, sensitivity, linearity, temperature and environmental limits, IP rating, electrical interface, and mounting. The concept phase also considers sensor type—capacitive, LVDT, or optical—and how it will integrate with condition-monitoring platforms. Durable mechanical design uses low‑drift materials, seals, and cable routing that withstand vibration and corrosion. Early design reviews ensure alignment with applicable standards and acceptance criteria. Delivery follows a disciplined path: rapid prototyping, thorough testing (thermal cycling, vibration, EMI), and real-world validation. Documentation covers datasheets, installation and calibration procedures, and traceability. In production, stringent quality control, calibration across the full range, and serialization ensure consistency. Finally, global logistics, clear lead times, and on‑going support—from field commissioning to spare parts—turn concept into a reliable asset for buyers.
| Dimension / Metric | Definition | Value | Unit | Data Source / Notes |
|---|---|---|---|---|
| Timeline (months) | Total duration from concept to delivery | 12 | months | Internal Design Plan (2023–2024) |
| Displacement Range | Range of measurable displacement under test conditions | 0 - 50 | mm | Lab Calibration 2024 |
| Resolution | Smallest detectable displacement | 0.5 | µm | Calibration Lab, 2023 |
| Linearity | FS linearity error | 0.05 | % | QA Specification |
| Hysteresis | Maximum difference between ascending/descending paths | 0.2 | µm | Test Protocol v2 |
| Response Time | Time to reach 90% of full-scale after step input | 2 | ms | Dynamic Testing 2024 |
| Operating Temperature Range | Ambient temperature span | -20 to 85 | °C | Environmental Qualification |
| Humidity Range | Relative humidity range (non-condensing) | 5 to 95 | %RH | Environmental Qualification |
| Protection Rating | Ingress protection rating | IP54 | N/A | Enclosure specification |
| Power Consumption | Average power during operation | 150 | mW | Electrical Design Review |
| Supply Voltage | Operating supply voltage | 3.3 | V | System Integration Specs |
| Interface | Communication interfaces | Analog voltage + I2C | N/A | Data Sheet, Section 4 |
| Housing Dimensions | External housing (L × W × H) | 25 × 15 × 8 | mm | CAD model spec v3 |
| Cable Length | Cable length to connector | 1.5 | m | Cable assembly BOM |
| Manufacturing Lead Time | Time from order to first batch | 4 | weeks | MFG Plan |
| Production Yield | Expected yield rate | 98 | % | Process Control Data |