GE Fanuc Mark VIe IS230TVBAH4A Vibration Input Terminal Board

Product Description

The GE IS230TVBAH4A is a high-performance Vibration Input Terminal Board designed for integration with GE Speedtronic Mark VIe gas and steam turbine control systems. It serves as a critical interface for collecting, conditioning, and digitizing vibration signals from turbine-mounted sensors, including proximity probes and accelerometers. This module enables accurate real-time vibration monitoring and supports predictive maintenance by providing early detection of mechanical anomalies.

Key Functions

• Captures vibration data from multiple sensor types on turbines.

• Conditions analog signals and converts them to digital outputs for the Mark VIe system.

• Provides power and communication interfaces for connected sensors.

• Acts as a high-speed signal bridge between field sensors and central turbine control units.

Technical Specifications

Applications

The IS230TVBAH4A is deployed in critical turbine environments where precise vibration monitoring is essential. Typical applications include:

• Real-time turbine vibration monitoring for gas and steam turbines.

• Predictive maintenance programs to detect rotor imbalance, misalignment, or bearing wear.

• Integration into centralized Mark VIe turbine control systems for automated diagnostics.

FAQ

Q: What types of sensors are compatible with IS230TVBAH4A?
A: It supports proximity probes and accelerometers with both analog and digital outputs.

Q: Can this board be used outside Mark VIe systems?
A: It is specifically designed for GE Speedtronic Mark VIe systems. Integration with other platforms is not recommended without custom engineering.

Q: How does this module aid predictive maintenance?
A: By digitizing vibration signals in real-time, it enables early detection of mechanical issues such as imbalance or misalignment, allowing timely interventions.

Q: Are there similar modules in the GE Mark VIe line?
A: Yes, the IS230TVBAH4B offers similar functionality but supports additional sensor channels for larger turbines.