The Phoenix Contact MCR-FL-C-UI-2UI-DCI is a versatile signal conditioner designed for industrial applications requiring reliable signal isolation and conversion. This compact module, suitable for DIN rail mounting, ensures the integrity of your signal transmission by providing four-way isolation between input, output, and supply circuits. With a robust polyamide housing, it is engineered to withstand harsh industrial environments, operating effectively within a temperature range of -25 to 55°C.
The device features two channels and offers configurable input and output options to cater to a wide range of signal types. The input can handle current signals from 0 mA to 24 mA and voltage signals from 0 V to 12 V, with the flexibility to select in fine increments for precise calibration. The output side provides similar versatility, with voltage output signals ranging up to 10 V DC and current output signals up to 20 mA, ensuring compatibility with various control systems and sensors.
With a maximum transmission error of less than 0.15% of the final value and a typical error of just 0.05%, the MCR-FL-C-UI-2UI-DCI ensures high accuracy in signal processing. The unit's transient protection and a test voltage rating of 1.5 kV for input/output/supply underscore its reliability and durability in protecting against voltage spikes and surges.
This signal conditioner is not only functional but also user-friendly, with pluggable screw connections that facilitate easy installation and maintenance. Its green colour and compact dimensions (17.5 x 99 x 114.5 mm) make it easily identifiable and space-efficient within control cabinets.
The MCR-FL-C-UI-2UI-DCI is compliant with CE standards and is recognised for use in Class I, Division 2, Groups A, B, C, and D or non-hazardous locations in the USA and Canada, ensuring it meets rigorous industry regulations and standards. Whether you're dealing with process control, automation, or other sophisticated industrial systems, this signal conditioner is engineered to deliver reliable performance and signal integrity.