EPRO A6500-LC

Technical Parameter

Power Supply: 4 VDC

Sensor Compatibility: The EPRO A6500-LC has been explicitly designed to work with LVDTs (linear variable differential transformers) to adopt accurate measurement and monitoring of physical quantity measurements such as displacement.

Operating Temperature Range: -20 °C to 70 °C  

Storage Temperature Range: -40 °C to 85 °C  

Relative Humidity: EPRO A6500-LC functions from very dry up to high humidity levels of 95% under non-condensing conditions.

Vibration and Shock Resistance:  IEC 60068-2 for vibration and certain resistance parameters, 0.15 mm at 10 Hz-55 Hz and 20 m/s² at 55 Hz-150 Hz, an acceptance of shock, 150 m/s², 4000 shocks per axis.

Features

Sensor Signal Conditioning: EPRO A6500-LC conditions the signals from the LVDT sensors accurately. It can filter out noise and interference to yield a clean and stable signal for later analysis.

Measurement and Monitoring: It measures some physical quantity accurately according to the input from the LVDT sensor. This type of monitoring gives real-time insight about changes in the monitored quantity.

Compatibility and Integration: EPRO A6500-LC is designed in such a way that operational installation can easily link it to other modules in the series. Its modular design permitted flexible configuring and expansion of the monitoring system, thus enabling seamless integration with extant control and monitoring architectures of an application success.

Configuration and Calibration: Configurable parameters allowing for adaptation to different types of LVDT sensors and measurement standards. Users can configure settings such as sensor range, zero point, gain, and many such parameters, right from software or other configuration tools. EPRO A6500-LC also supports calibration procedures, to allow accurate measurement obtained under controlled circumstances while maintaining compatibility irrespective of given intervals.

Flexibility and Scalability: Modular design makes it easy to add new modules to substitute the old ones. Such inherent flexibility gives extended potential in not just system configuration but also in the enlargement of the same. The user starts with a small system and adds desired new modules to augment the monitoring layers. The scalability of the EPRO A6500-LC therefore suits a broad range of applications and starts from small equipment0monitoring to corporation plant-wide installations.

Applications

Industrial Automation: It is specifically applied to watch over the position, displacement, or movements of mechanical components such as valve actuators and robotic arms in various industrial automation processes. By providing accurate measurements and monitoring of these parameters, it allows for the precise control and operation of industrial machinery, thus increasing production efficiency, product quality, and process reliability.

Power Generation: In power plants, EPRO A6500-LC may be used in monitoring the expansion and contraction of the turbine shaft, the position of steam valves, and the displacement of generator components. Real-time monitoring data is extremely useful in avoiding catastrophic failures, scheduling the most efficient maintenance times, and allowing for safe and efficient operation of power generation equipment, thereby contributing to the stability and reliability of the power grid.

Oil and Gas: In the oil and gas industry, it is employed to monitor the position and movements of wellhead equipment, pipeline valves, and components of compressors. This poses accurate and timely information on the condition of the equipment, making it possible for operators to detect potential leaks, mechanical failures, or other abnormal conditions early and thus provides the basis for preventive maintenance measures.

Renewable Energy: In renewable energy application such as wind turbine and solar tracking systems, EPRO A6500-LC is used to monitor the position and movement of rotor blades, tower deflections, and solar panel tracking mechanisms. Accurate monitoring data helps the performance and reliability improvements of these systems, thus increasing energy production efficiency while reducing maintenance costs.