GE-FANUC IS200VTURH1BAC Control Board

Model:IS200VTURH1BAC

Manufacturer:General Electric

Functional Acronym:VTUR

Sensing Voltage HI:20 V dc

Sensing Voltage LO:6 V dc

Trip Solenoids:3

Pulse Rate Range:2 Hz to 20 kHz

Pulse Rate Accuracy:0.05% of Reading

Board Number:IS200VTURH1BAC

    The GE VTUR H1B IS200VTURH1BAC Control Board is a critical component of the renowned Mark VI series, specifically designed for enhancing turbine protection systems in industrial settings. This precision-engineered control board is renowned for its ability to maintain operational integrity under extreme conditions, ensuring reliable energy production.

    Featuring advanced triple modular redundant (TMR) architecture, the IS200VTURH1BAC ensures fail-safe operation, with three independent IONets, Control Modules, and power supplies. This robust design guarantees uninterrupted system functionality even in case of component failures, making it an indispensable choice for power generation plants seeking unparalleled reliability.

    Equipped with a pulse rate range from 2 Hz to 20 kHz, the VTUR H1B board offers unparalleled precision in monitoring and controlling turbine operations. Its exceptional pulse rate accuracy of 0.05% of reading ensures that every action is executed with utmost precision, contributing to the overall efficiency and longevity of the turbine system.

    With support for 3 trip solenoids and contact voltage sensing capabilities of 20 V dc for high and 6 V dc for low, the IS200VTURH1BAC Control Board provides comprehensive protection mechanisms against potential failures, safeguarding the turbine against overheating, overloading, and other hazards that could compromise system performance.

    Crafted with durability and performance in mind, the IS200VTURH1BAC Control Board is designed to withstand the rigorous demands of industrial environments. Its compact dimensions (L x W x H: 150 x 100 x 30 mm) and lightweight construction (0.5 kg) facilitate easy installation and maintenance, allowing for seamless integration into existing systems without compromising on space or maneuverability.