GE IS215UCVGH1A B Mark VI Speedtronic VME Controller Board
GE IS215UCVGH1A B Mark VI Speedtronic VME Controller Board
GE IS215UCVGH1A B Mark VI Speedtronic VME Controller Board
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GE IS215UCVGH1A B Mark VI Speedtronic VME Controller Board

  • Manufacturer: GE Fanuc

  • Part Number: IS215UCVGH1A B

  • Condition:New with Original Package

  • Product Type: VME Controller Cards

  • Country of Origin: USA

  • Payment:T/T, Western Union

  • Shipping port: Xiamen

  • Warranty: 12 months

GE IS215UCVGH1A B Mark VI VME Controller Card

The GE IS215UCVGH1A B, also cataloged as the IS200UCVG / IS215UCVG VME Controller Card, operates as a dedicated hardware component for high-speed processor execution and system logic management within Mark VI control platforms. Powered by an Intel Ultra Low Voltage Celeron 650 MHz processor running the QNX Real-Time OS, the single-slot 6U VME board executes 32-bit backplane data transfers and manages 128 MB SDRAM paired with 128 MB Flash memory. Integrated channel-to-bus isolation and onboard diagnostic hardware maintain real-time data synchronization between the central CPU and field I/O modules across heavy industrial turbine automation environments.

Hardware Specifications

Parameter Specification
Model IS215UCVGH1A B
Brand GE
Origin USA
Weight 0.45 kg
Dimensions Standard 6U VME Form Factor (~233 mm x 167 mm)
Operating Temp 0 deg C to +60 deg C
Power Consumption +5 VDC via VME Backplane / 24 VDC System Supply
Processor Architecture Intel Ultra Low Voltage Celeron 650 MHz
Onboard Memory 128 MB SDRAM + 128 MB Flash Memory
Operating System QNX Real-Time Operating System
Bus Interface 32-bit VME Bus Interface
Diagnostics Onboard Self-Test, Front Panel LED Indicators

Backplane Bus Communication Velocity and Firmware Flash Compatibility

The GE IS215UCVGH1A B establishes high-speed deterministic data transfer across the 32-bit VME backplane bus, allowing the central controller to execute real-time turbine protection and regulation routines without network jitter. Embedded firmware flash compatibility enables seamless code execution and memory segmentation via the QNX real-time kernel, maintaining software alignment during module replacements. Onboard memory buffers process incoming I/O frames at full bus communication velocity, ensuring continuous system health monitoring and reliable synchronization between processing nodes.

Frequently Asked Questions

Q: What precautions are necessary regarding firmware flash compatibility during module replacement?

A: Before installing a replacement card, engineers must verify that the resident firmware version stored in the 128 MB flash memory matches the control system software revision to avoid backplane execution halts.

Q: How does the controller board execute initial hardware diagnostic routines?

A: Upon powering up via the VME backplane, the card initiates an automatic built-in self-test (BIST) cycle and updates front-panel status LEDs to confirm processor rail, RAM, and bus controller integrity.

Q: Can the board be inserted into any open VME rack position?

A: No, the card must be installed into the master controller slot of the Mark VI VME rack to establish primary 32-bit bus arbitration and system timing control.

Field Installation Guidelines

Execute the following physical assembly and handling procedures during module installation:

  1. ESD Grounding: Attach an anti-static wrist strap to the enclosure earth point prior to unpacking or handling the controller card to protect onboard CMOS devices.
  2. Card Slot Alignment: Position the single-slot 6U card within the designated master VME slot guides, ensuring top and bottom board edges align smoothly with the rails.
  3. Injector Handle Engagement: Push the card inward until the backplane connectors make contact, then firmly lock the upper and lower injector handles to seat the multi-pin DIN interface.
  4. Retaining Screw Fastening: Tighten the captive front-panel retaining screws to establish chassis ground continuity and secure the card against physical vibration.
  5. System Verification: Apply power to the rack and observe the front-panel status LEDs during boot sequence to confirm proper execution of the QNX real-time kernel.
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