Configured for excitation control in power automation systems, the GE IS200EHPAG1AED (IS200EHPAG1AED Exciter Board) provides direct physical/electrical execution across GE Mark VI control platforms.
Suffix Breakdown & Model Matrix
Manufacturer: GE
Model Number: IS200EHPAG1AED
Base Model: IS200EHPA
Function Version: G1AED standard configuration featuring Mark VI exciter board circuitry for power generation systems
Hardware Specifications
Parameter
Specification
Model
IS200EHPAG1AED
Brand
GE
Category
Industrial Control and Excitation Systems
Product Type
Exciter Boards
Origin
Authorized Manufacturing Facility
Weight
Standard industrial printed circuit board weight
Dimensions
Standard Mark VI board form factor
Operating Temp
-10 deg C to +55 deg C
Power Consumption
Standard backplane excitation power supply
Core Performance
Precise excitation control, DIN rail mountable, -40 deg C to +70 deg C storage range
Profinet and Deterministic Backplane Network Execution
Engineered to integrate directly into GE Mark VI control architectures, the IS200EHPAG1AED operates with backplane bus communication velocity licences to support deterministic data exchanges. The board executes high-speed signal processing for rotor excitation loops while maintaining firmware flash compatibility across distributed turbine control nodes. I/O density scaling is managed natively to preserve high-precision signal feedback across high-voltage generation assets.
Frequently Asked Questions
Q: Does the IS200EHPAG1AED board support hot-insertion replacement within an active Mark VI rack?
A: Power must be isolated prior to board extraction or insertion to prevent backplane transient damage and ensure hardware protection.
Q: What environmental monitoring is required for this exciter board installation?
A: Ambient operating temperatures must remain strictly between -10 deg C and +55 deg C with relative humidity levels maintained below 95% non-condensing.
Field Installation Guidelines
Mount the module securely using standard DIN rail installation procedures inside a grounded industrial control cabinet. Ensure that all backplane connectors are fully seated and free from particulate contamination prior to system energization. Route internal control wiring away from high-current power stages to prevent electromagnetic interference and maintain signal integrity.
