8710-CA-04 GE PAC8000 Four-Module Backplane Carrier
8710-CA-04 GE PAC8000 Four-Module Backplane Carrier
8710-CA-04 GE PAC8000 Four-Module Backplane Carrier
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8710-CA-04 GE PAC8000 Four-Module Backplane Carrier

  • Manufacturer: GE Fanuc

  • Part Number: 8710-CA-04

  • Condition:New with Original Package

  • Product Type: Backplane Module Carriers

  • Country of Origin: USA

  • Payment:T/T, Western Union

  • Shipping port: Xiamen

  • Warranty: 12 months

GE 8710-CA-04 PAC8000 Four-Module Backplane Carrier

The GE 8710-CA-04, also cataloged as the 8710-CA-04 Four-Module Backplane Carrier, operates as a dedicated hardware component for mechanical and electrical module interfacing within PAC8000 distributed control platforms. This hardware assembly establishes the primary bus links and field power routing infrastructure required to sustain multi-channel data paths across node structures. By standardizing physical terminal connections and executing localized signal tracking, the carrier manages continuous power and bus logic distribution directly to mounted active components.

Hardware Specifications

Parameter Specification
Model 8710-CA-04
Brand GE
Origin United States
Weight 3.0 kg
Dimensions Standard PAC8000 carrier footprint
Operating Temp -40 to +70 deg C (Standard industrial baseline)
Power Consumption Passive distribution / Bussed Field Power interface
Module Capacity Up to 4 PAC8000 I/O modules
Addressing Range 64-slot addressing standard
Power Distribution Bussed Field Power (BFP) system feeding adjacent slots
Mounting Options Standard T-section DIN-rail, G-section DIN-rail, or flat-surface
Termination Snap-on field terminals with integrated shield tracks
Mechanical Security Integrated mechanical coding key matrix

Backplane Bus Communication Velocity and Node Density Scaling

The 8710-CA-04 integrates into large node layouts by executing specific I/O density scaling protocols over an internal serial data layer. The hardware structure implements a 64-slot addressing design, which requires isolation from legacy 32-slot backplane equipment to prevent data collision and frame timing errors during scan cycles. Bus paths routed through the multi-layer printed circuit plane enforce rigid transmission velocities, allowing synchronized clock cycles between adjacent modules. To preserve signal integrity across high-density configurations, the carrier pairs structural terminal blocks with built-in grounding rails for cable screens, suppressing stray high-frequency electromagnetic interference before it reaches the active backplane data lines.

Frequently Asked Questions

Q: What are the specific configuration rules regarding mixed-mode slot addressing when using the 8710-CA-04 carrier?

A: The 8710-CA-04 mandates 64-slot addressing logic throughout the complete electrical node segment. It is prohibited to link this hardware concurrently with older 32-slot addressing carriers on the same local bus segment, as mixing configurations disables the backplane address line mapping and prevents the node controller from resolving peripheral slot positions.

Q: How is the field power circuit isolated and allocated across the four module positions?

A: Electrical distribution occurs through dedicated Bussed Field Power (BFP) circuits embedded within the backplane trace matrix. Each independent BFP injection block distributes field operating current to a pair of two adjacent slots, minimizing the physical field supply connection points while preserving localized electrical separation during channel maintenance operations.

Field Installation Guidelines

  • Mounting Alignment and Continuity: Mount the carrier directly onto a verified, unpainted metal T-section or G-section DIN-rail. Ensure the end-to-end alignment locks firmly with adjoining carriers to maintain low-resistance backplane bus plug-in continuity across the entire node backplane assembly.
  • Mechanical Keying Alignment: Verify that the mechanical alignment keys located on the face of the carrier match the hardware profile coding of the specific PAC8000 I/O module to be inserted, preventing physical insertion errors and pin damage.
  • Shield Termination Infrastructure: Connect all incoming field instrument cable screens and shields directly to the snap-on field terminal grounding bars. Maintain appropriate distance separating field signal cables from high-voltage AC motor conductors within the control panel ducting to prevent signal cross-talk.
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