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SKU: 80190-100-01-R

Allen Bradley 80190-100-01-R Fiber Optic Board

The Allen Bradley 80190-100-01-R, also cataloged as the 80190-100-01-R Fiber Optic Board, operates as a dedicated hardware component for optical signal conversion and transmission within PLC-5 network environments. The unit processes optical waveforms to establish reliable point-to-point physical links across extended industrial topologies, eliminating electromagnetic interference vulnerabilities typical of standard copper cabling.

Suffix Breakdown & Model Matrix

The model nomenclature follows structured revision tracking conventions established by the manufacturer:

  • 80190: Core hardware series identifier designating fiber optic transceiver and interface board architecture.
  • -100: Standard bandwidth and optical wavelength variant configuration.
  • -01: Revision tier indicating base hardware layout and component tolerances.
  • -R: RoHS compliance designation denoting restriction of hazardous substances adherence in electronic manufacturing.

Hardware Specifications

ParameterSpecification
Model80190-100-01-R
BrandAllen Bradley
OriginUSA
Weight0.06 kg
Dimensions10.3 x 8.8 x 2 cm
Operating Temp0 deg C to 60 deg C
Power Consumption2.5 W max
Range of ProductPLC-5
Communication ServiceEthernet router / Fiber optical interface
ConditionBrand New

Backplane Bus Communication Velocity and Firmware Integration

Data transmission across the PLC-5 chassis interface relies on deterministic timing parameters managed by the onboard transceiver logic. The optical conversion circuitry regulates signal attenuation to maintain bit error rates below 10-12 over specified fiber attenuation windows. Firmware flash compatibility ensures alignment with legacy backplane bus communication velocity requirements, supporting multi-drop network synchronization without packet jitter escalation.

Frequently Asked Questions

Q: What are the primary hot-swap limitations when replacing this fiber optic board in an active PLC chassis?

A: Hot-swapping is restricted unless designated system slot power isolation procedures are executed. Live extraction without rack power down can induce transient voltage spikes across backplane communication pins.

Q: How does the module handle optical link loss during runtime?

A: Loss of light signal triggers an immediate hardware interrupt flag on the local bus interface, prompting the primary CPU controller to transition redundant communication loops within deterministic fallback time bounds.

Field Installation Guidelines

Observe standard electrostatic discharge (ESD) mitigation protocols prior to handling the printed circuit board assembly. Secure the unit within the designated rack slot using retention screws torqued to manufacturer specifications. Ensure optical patch cables match the correct core diameter and connector polishing parameters to prevent insertion loss exceeding nominal thresholds. Maintain bend radii above minimum thresholds for all connected fiber optic cabling.