GE IS215UCCAM03 Compact PCI Processor Board

Industrial Applications

The GE IS215UCCAM03 Compact PCI Processor Board is designed for high-performance control and data processing in GE Mark VIe and related turbine control systems. It provides the computational backbone for application execution, system monitoring, and communication tasks within compact PCI environments.

Common deployment scenarios include:

• Gas and steam turbine control systems
• Combined-cycle power plant automation
• High-speed process control and monitoring
• Generator synchronization and protection
• Compressor and rotating machinery control
• Distributed control systems (DCS) requiring modular processors
• Real-time data acquisition and communication
• Industrial automation requiring compact PCI integration 

Key Advantages

• High-speed processor for real-time industrial control
• Compact PCI form factor for modular and space-efficient integration
• Supports multiple I/O and communication interfaces
• Reliable operation in continuous-duty industrial environments
• Compatible with GE Mark VIe automation architecture
• Enhances processing speed and system responsiveness
• Robust thermal and vibration tolerance
• Reduces control latency in critical applications
• Easy integration into existing control cabinets
• Extends system life through durable industrial-grade components

Technical FAQs

1. What is the main function of the IS215UCCAM03?

It provides high-speed processing and application execution for GE control systems.

2. Where is this processor board used?

It is deployed in GE Mark VIe turbine and industrial automation systems.

3. Is it a real-time controller?

Yes, it executes real-time control and monitoring applications.

4. What kind of I/O does it support?

It interfaces with GE system I/O modules via compact PCI architecture.

5. Can it operate in power generation environments?

Yes, it is widely used in gas and steam turbine control systems.

6. Is it compatible with modular systems?

Yes, its compact PCI form factor supports modular control architectures.

7. How does it improve system performance?

It enhances processing speed and reduces latency in control and communication tasks.

8. Is it designed for harsh industrial conditions?

Yes, it tolerates temperature extremes, vibration, and EMI common in power plants.

9. Does it require additional cooling?

It may require standard industrial chassis cooling depending on cabinet design.

10. Why choose this processor board?

It provides reliable, high-performance computation for critical industrial control applications.