Brand: GE Description: Simplex Thermocouple Input Board Condition: Brand New Certificate: COO TEST REPORT WARRANTY LETTER Warranty: 1 year Inventory Qty: 7 Payment Term: T/T Shipping Port: ShenZhen GE IS210DTTCH1A is a simplex thermocouple input terminal board used in the Mark VI turbine control system. It supports 12 thermocouple inputs for precise temperature monitoring and features cold junction compensation for increased accuracy.
Manufacture |
GE |
Model Number |
IS210DTTCH1A |
Ordering Number |
IS210DTTCH1A |
Catalog |
Mark VI |
Country Of Origin |
USA |
HS CODE |
8479909090 |
Dimension |
30cm*18cm*10cm |
Packing Dimension |
32cm*20cm*12cm |
Weight |
1.2kg |
Operating Parameters
Input Voltage: 24V DC
Operating Temperature Range: -40°C to +70°C
Storage Temperature Range: -40°C to +85°C
Humidity: 5% to 95%
Thermocouple Inputs: The board supports 12 thermocouple inputs, accommodating various thermocouple types for diverse temperature measurement needs.
Signal Conditioning: Integrated signal conditioning ensures accurate temperature readings by minimizing noise and interference.
Cold Junction Compensation: The board features cold junction reference capabilities to maintain measurement accuracy across varying environmental conditions.
Product Features
Terminal Board Function: Main terminal board assembly for contact。 And acts as an interface for different field - based devices to communicate from sensors to control system.
Signal Conditioning and Transmission: GE IS210DTTCH1A does the signal conditioning of the input signals.
Temperature Data Acquisition: The primary function of the GE IS210DTTCH1A is to acquire temperature data from connected thermocouples and transmit this information to the control system for monitoring and analysis.
Data Handling: The data generated by thermocouples need adequate processing, so the board might include signal conditioning, linearization and other techniques to ensure that data is useful.
Installation
Mounting process: make sure that the DIN rail is well installed in the control cabinet. The GE IS210DTTCH1A can now be easily mounted onto a DIN rail. Multiple boards can be placed next to each other on the same DIN rail because of its stackable design.
Grounding: The part number indicates that the board uses two SCOM screw connections for ground connection. These must be properly connected at installation. Ground connections assist in minimizing electrical noise and guaranteeing the board functions safely. Make sure to screw the SCOM screws very tight to confirm good ground path.
Connecting to VTCC: Use a single standard 37 - pin cable connector to connect the GE IS210DTTCH1A to the VTCC thermocoupler processing board. Make sure that the connector is fully inserted and locked in place to prevent any loose connections that could lead to signal loss or intermittent operation.
Application range
Gas Turbines: Analysing gas turbine power plants, GE IS210DTTCH1A is deployed for monitoring the temperature of various parts of the gas turbine. It can be interfaced to provide real - time temperature data to the control system by attaching thermocouples to its inputs. This data helps enhance the operation of the gas turbine as it is utilized for efficient burning of fuel and avoiding critical components from heating up in case of malfunction.
Steam Turbines: in the steam turbine - based power generation domain, the board can be integrated to monitor the temperature of steam at different stages of the turbine cycle. Doing so keeps the steam turbine operating effectively and the power plant running under safe conditions.
Metal Processing: in metal smelting and forging processes, it is important to control temperature. The GE IS210DTTCH1A is used to monitor a furnace or a metal workpiece for temperature. Such precision makes it possible to control the heating and cooling process precisely, leading to high - quality metal products.
Chemical Processing: The board may be used to monitor and control the temperature of reaction vessels in chemical plants, where reactions often take place at certain temperatures. This also makes sure that chemical reactions occur as desired, which maximises product yield while limiting the chance that unwanted side - reactions to occur.
Troubleshooting
Inaccurate Temperature Readings: Faulty thermocouple connections, incorrect thermocouple type configuration, or environmental interference.
Fix: Check if all thermocouple connections are properly secured and configured, confirm the correct type of thermocouple is selected in system configuration, and monitor external electrical noise or environmental factors that could impact readings.
Loss of Signal: Inspect thermocouple wires for continuity and integrity; ensure the 37-pin cable is securely connected and free from damage.