DS200DMCBG1AJE GE Turbine Control Processor Board
DS200DMCBG1AJE GE Turbine Control Processor Board
DS200DMCBG1AJE GE Turbine Control Processor Board
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DS200DMCBG1AJE GE Turbine Control Processor Board

  • Manufacturer: GE Fanuc

  • Part Number: DS200DMCBG1AJE

  • Condition:New with Original Package

  • Product Type: Processor Boards

  • Country of Origin: USA

  • Payment:T/T, Western Union

  • Shipping port: Xiamen

  • Warranty: 12 months

General Electric DS200DMCBG1AJE Speedtronic Mark V DOS DUP Processor Board

Configured for high-speed turbine control logic execution in Speedtronic Mark V platforms, the General Electric DS200DMCBG1AJE (DS200DMCBG1 DOS DUP Processor Board) provides direct physical/electrical execution.

Suffix Breakdown & Model Matrix

Suffix / Variant Revision Level Description Hardware Configuration
DS200DMCB Base Part Number Standard Mark V DOS DUP Processor Board Architecture
G1 Group 1 Classification Standard functional layout for Speedtronic Mark V racks
A First Revision Level Initial physical PCB and trace layout update
J Second Revision Level Upgraded onboard component tolerances and signal routing
E Third Revision Level Latest hardware revision for enhanced rack synchronization

Hardware Specifications

Parameter Specification
Model DS200DMCBG1AJE
Brand General Electric
Origin United States
Weight 0.80 kg
Dimensions 10.5 x 7.2 x 1.5 in
Operating Temp 0 to 60 deg C
Power Consumption System backplane powered via Mark V rack
Processor Architecture Dual microprocessor configuration
Board Type DOS DUP (Distributed User Processor) Board
Onboard Connectors 3x 26-pin, 1x 40-pin, 2x 34-pin ribbon header connections
Jumpers 19 onboard configuration jumpers
Status Indicators 2 diagnostic LEDs (CR2, CR12)

Backplane Bus & High-Speed Logic Processing

The General Electric DS200DMCBG1AJE utilizes a dual-microprocessor architecture to maintain deterministic control loops across the Speedtronic Mark V backplane bus communication velocity framework. By distributing processing tasks across dual onboard chips, the board executes real-time turbine control algorithms while preventing processor starvation during heavy I/O polling cycles. Onboard power conditioning arrays, composed of dedicated diodes and filter capacitors, suppress transient voltage spikes on the local power rail. Diagnostic LEDs (CR2 and CR12) report processing activity directly from the primary bus, giving hardware-level verification of rack synchronization and firmware execution without external monitoring equipment.

Frequently Asked Questions

Q: How do the onboard jumpers impact replacement procedures?

A: Jumpers set hardware-level routing and address options for the Mark V backplane. Before installing a replacement board, technicians must match all 19 jumper positions on the new module to the settings of the removed unit. Adjusting jumpers while the board is powered will cause equipment damage.

Q: What precautions prevent firmware synchronization failures during board installation?

A: The board hardware revision (AJE) must align with the PROM set and software revision installed in the target Mark V control rack. Mismatched firmware levels between the processor board and the controller rack will cause bus initialization faults and prevent system boot.

Field Installation Guidelines

  • Electrostatic Discharge Safety: Wear a grounded wrist strap connected to the cabinet chassis ground before opening the rack or touching the replacement board. Keep the board inside its anti-static protective bag until physical installation.
  • Power De-energization: De-energize all power feeds to the Mark V rack prior to removal or insertion. Do not hot-swap this card; unseating connectors while the backplane is live risks latch-up or permanent component destruction.
  • Ribbon Cable Terminal Handling: Label and carefully disconnect all ribbon cables attached to the 26-pin, 34-pin, and 40-pin headers. Press the outer locking tabs on the connector bodies outward to release the cables without putting tension on the individual wires.
  • Jumper Mirroring: Verify that all 19 configuration jumpers on the new board match the hardware layout of the existing board exactly before sliding the board into the card cage slot.
  • Mechanical Alignment & Grounding: Slide the module along the plastic card guides until the edge connector seats fully into the backplane backboard. Secure all retaining screws to establish chassis ground continuity and prevent vibration-induced loosening.
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