IS200TBAIH1CED GE Mark V Analog I/O Terminal Board

IS200TBAIH1CED GE Mark V Analog I/O Terminal Board

IS200TBAIH1CED is an Analog I/O Terminal Board developed by GE. It is a part of Mark VIe control system. The Analog Input/Output (TBAI) terminal board is a component within control systems, offering versatile functionality and robust capabilities for handling analog signals. It facilitates the integration of analog inputs, supporting up to 10 channels. These inputs are designed to accommodate various types of transmitters, including two-wire, three-wire, four-wire, or externally powered transducers. This flexibility allows for seamless integration with different types of sensors and measurement devices.

Features:
-Analog Output Capabilities: In addition to analog inputs, it provides two output channels that can be configured to output either 0-20 mA or 0-200 mA current signals. This versatility enables precise control and modulation of output signals to meet specific system requirements.
-Noise Suppression Circuitry: To ensure signal integrity and reliability, both input and output channels are equipped with noise suppression circuitry. This feature protects against surge and high-frequency noise, maintaining signal quality and stability even in challenging operating environments.
-Connectivity Options: Designed with three DC-37 pin connectors tailored for connection to VAICs. For simplex applications, a single connector (JR1) is utilized, while TMR (Triple Modular Redundant) applications leverage all three connectors. This setup allows for seamless integration and communication between TBAI and the VAICs, ensuring optimal performance and reliability.
-Operation in TMR Applications: In TMR configurations, input signals are distributed across the three connectors dedicated to the R, S, and T controls. The board intelligently combines the current output from the three connected drivers and determines the total current using a measuring shunt. This total current signal is then presented to the VAICs for regulation based on the commanded setpoint, enabling precise control and synchronization in redundant system architectures.