GE Mark VI IS200JPDDG1A Power Distribution Terminal Board
GE Mark VI IS200JPDDG1A Power Distribution Terminal Board
GE Mark VI IS200JPDDG1A Power Distribution Terminal Board
/ 3

GE Mark VI IS200JPDDG1A Power Distribution Terminal Board

  • Manufacturer: GE Fanuc

  • Part Number: IS200JPDDG1A

  • Condition:New with Original Package

  • Product Type: Power Distribution Terminal Boards

  • Country of Origin: USA

  • Payment:T/T, Western Union

  • Shipping port: Xiamen

  • Warranty: 12 months

GE IS200JPDDG1A Mark VI Board

Configured for pulse rate data acquisition, diagnostic monitoring, and DC distribution inside industrial platforms, the General Electric IS200JPDDG1A (IS200JPDDG1A Power Distribution Terminal Board) provides direct physical/electrical execution. The hardware establishes electrical routing of a nominal 125 VDC input supply, partitioning the primary bus into distinct branch circuit channels that feed downstream control cards and I/O modules while enforcing hardware overcurrent limits via individual physical fuses.

Hardware Specifications

Parameter Specification
Model IS200JPDDG1A
Brand General Electric
Origin USA
Weight 0.45 kg
Dimensions 233 x 100 x 25 mm
Operating Temp -25 to +65 deg C
Power Consumption 125 VDC (nominal input)
Product Type Power Distribution Terminal Board
System Compatibility GE Mark VI Turbine Control System
Output Distribution Multiple DC outputs to control and I/O boards
Total Current Capacity Up to 20 A total distribution
Protection Individual inline fuses per output channel
Isolation 1500 VAC system-to-board for 1 min
Diagnostics Local LED indicators for power status and fault tracking
Redundancy Dual/triple modular configurations supported
Humidity Range 5 to 95% RH, non-condensing
Mounting Panel or rack mounting

Industrial Control and Drive Attributes

The layout of the IS200JPDDG1A directly influences backplane bus communication velocity by dampening transient voltage fluctuations that affect adjacent operational microprocessors. The design optimizes I/O density scaling up to a 20 A threshold across high-current traces, ensuring that thermal profiles do not compromise localized electrical structures. This voltage stability prevents interruptions to systemic data buses, preserving the continuous firmware flash compatibility environment demanded by the primary Mark VI executive controller framework.

Frequently Asked Questions

Q: How do the local diagnostic circuits flag an individual channel fuse failure?

A: Each branch path integrates an onboard voltage sensing network tied directly to a local LED indicator. Under standard operating conditions, the light emitting diode denotes steady power; upon an overcurrent event that blows the inline fuse, the circuit breaks, shifting voltage across the sensing network and triggering a dedicated fault indicator.

Q: Is online hot-swap servicing permitted for individual branch circuit fuses?

A: Physical extraction of fuses while a branch carries live electrical load poses risks of inductive arcing and localized bus disruptions. Field engineers must isolate the upstream supply loop or transition control tasks to a parallel redundant board before replacing components to ensure stable operation.

Q: What mechanisms insulate the control logic from high-voltage surges on the distribution lines?

A: Protection relies on standard 1500 VAC galvanic separation barriers built into the system-to-board trace layout, isolating the main 125 VDC path from internal monitoring circuitry to block cross-talk and transient feedback loops.

Field Installation Guidelines

  • Mount the terminal board to the panel backplate or cabinet frame using the integrated mounting holes, maintaining direct electrical contact between the chassis frame and earth ground.
  • Terminate the primary 125 VDC incoming supply lines at the heavy-duty input blocks, applying correct torque to all terminal screws to mitigate high-resistance contact points.
  • Route output distribution cables in separated wire ducts away from low-signal analog input or high-speed communication wires to minimize inductive cross-talk.
  • Verify all branch fuses match the targeted circuit current parameters before applying primary power to the incoming terminal block.
You may also like