Allen Bradley 80190-600-01-R Optical Interface Base Board

Configured for high-speed optical signal processing in industrial control networks, the Allen Bradley 80190-600-01-R (80190-600-01-R PC Board) provides direct physical/electrical execution of data exchange between backplane components and fiber-optic media.

Hardware Specifications

Backplane Bus and Deterministic Network Connectivity

The 80190-600-01-R is engineered to integrate into Allen Bradley PLC backplane architectures, serving as the physical layer interface for optical communication links. The module utilizes high-speed transceivers to manage deterministic data packets, ensuring low-latency transmission across field-bus segments. Firmware flash compatibility is strictly enforced; users must verify that the base chassis backplane supports the specific communication velocity required for the installed optical interface. Proper bus termination is required to maintain signal integrity and prevent reflection-induced packet corruption within the deterministic network environment.

Frequently Asked Questions

Q: Is this board compatible with legacy versions labeled 80190-600-01R?

A: Yes, the 80190-600-01-R is a functional replacement for the 80190-600-01R assembly. Ensure that the associated firmware and backplane configuration settings are updated to match the latest hardware revision requirements.

Q: Does this optical interface support hot-swapping?

A: No. As a backplane-mounted component, hot-swapping is not supported. The host PLC chassis must be de-energized to prevent potential bus communication errors or damage to the transceiver circuitry during installation.

Field Installation Guidelines

1. Power down the PLC rack and verify the absence of voltage at the backplane before handling the PC board.
2. Align the board with the dedicated slot guides on the PLC backplane to prevent mechanical stress on the interface pins.
3. Seat the board firmly until the locking mechanism engages, ensuring electrical contact with the backplane bus.
4. Clean the optical interface fiber ports using industry-standard lint-free swabs and isopropyl alcohol to ensure zero-attenuation connectivity.
5. Connect fiber-optic cables and secure them using appropriate strain relief to prevent mechanical tension from affecting the board-to-backplane connection.
6. Perform a logic consistency check via the controller software to verify that the module is recognized and communicating at the correct baud rate.