GE IS200TAMBH1ACB Industrial Control Systems' Innovation Drive Series Mark VI IS200

GE IS200TAMBH1ACB Industrial Control Systems' Innovation Drive Series Mark VI IS200

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The IS200TAMBH1ACB module is specifically designed for precise temperature measurement. It can accurately measure temperature values in real-time, allowing for accurate monitoring and control of temperature-sensitive processes or equipment.

The module features multiple input channels, enabling the connection and monitoring of multiple temperature sensors simultaneously. It allows for comprehensive temperature monitoring in complex systems or processes.

The module provides communication interfaces for seamless integration with supervisory control and data acquisition (SCADA) systems or other control networks. It supports industry-standard protocols, enabling remote monitoring and control of temperature parameters.

The module is designed for easy installation and configuration, simplifying the integration process into existing temperature control systems. It offers user-friendly interfaces and intuitive configuration options, reducing setup time and effort.

The existence of flame can either be calculated from turbine parameters that are already being monitored or from a direct interface to Reuter Stokes or Honeywell type flame detectors. These detectors monitor the flame in the combustion chamber by detecting UV radiation emitted by the flame. The Reuter Stokes detectors produce a 4-20 mA input. For Honeywell flame scanners, the Mark VI supplies the 335 V dc excitation and the VTUR / TRPG monitors the pulses of current being generated to determine if carbon buildup or other contaminates on the scanner window are causing reduced light detection.

In addition to general purpose I/O, the Mark VI has a large variety of boards that are designed for direct interface to unique sensors and actuators. This reduces or eliminates a substantial amount of interposing instrumentation in many applications. As a result, many potential single point failures are eliminated in the most critical area for improved running reliability and reduced long term maintenance. Direct interface to the sensors and actuators also enables the diagnostics to directly interrogate the devices on the equipment for maximum effectiveness. This data is used to analyze device and system performance. A subtle benefit of this design is that spare parts inventories are reduced by eliminating peripheral instrumentation.