Digital I/O Cards GE VersaMax Micro IC200UEI016

The GE IC200UEI016, also cataloged as the IC200UEI016 Expansion Module, operates as a dedicated hardware component for discrete signal expansion within VersaMax Micro PLC networks.

Hardware Specifications

Backplane Bus Communication Velocity and Determinism

The expansion module links directly to the host micro controller via the proprietary expansion bus interface, maintaining high-frequency data throughput and strict input/output density scaling. The module utilizes localized registers synchronized to the controller execution sweep to minimize loop latency. Onboard firmware flash compatibility permits verified synchronization with newer generation CPU logic blocks while preserving determinism across the local I/O bus network without hardware degradation.

Frequently Asked Questions

Q: Does the local expansion bus interface support hot-swapping sequences?

A: No, the local expansion interface does not support hot-plugging. Disconnecting or seating the expansion interface cable while power is applied to the host controller or expansion block can cause backplane register corruption and trip an immediate configuration fault.

Q: How are the 16 discrete input channels configured for sink or source field wiring?

A: The 16 input channels are structured into distinct isolated groups. They can be configured for either positive logic (sink inputs) or negative logic (source inputs) configurations by manipulating the common connection line to the field power distribution rail.

Q: What do the individual front-facing LED indicators display?

A: The chassis contains a discrete LED diagnostic array on the faceplate. Individual green indicators map out the physical on/off logic status of each input channel point to assist during site troubleshooting procedures.

Field Installation Guidelines

• Chassis Fixation Method: Mount the module housing securely onto a standard 35 mm DIN-rail assembly or panel mount via the integrated screw points. Ensure the rear metallic grounding clip locks firmly onto the rail surface to secure a low-impedance earthing path.
• Signal Separation Matrix: Route all 24 VDC discrete input sensor cabling inside separate low-voltage wire ducts. Maintain a physical distance separation boundary of at least 100 mm from high-voltage AC mains lines or motor drive wiring to prevent high-frequency noise injection.
• Terminal Screw Tightening Torque: Secure all field signal loops to the terminal block using correct wire terminations. Apply a uniform tightening torque specification limit of 0.5 Nm to prevent contact degradation and mechanical stress.