DS200TBCAG1A GE Mark V RTD Terminal Boards
DS200TBCAG1A GE Mark V RTD Terminal Boards
DS200TBCAG1A GE Mark V RTD Terminal Boards
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DS200TBCAG1A GE Mark V RTD Terminal Boards

  • Manufacturer: GE Fanuc

  • Part Number: DS200TBCAG1A

  • Condition:New with Original Package

  • Product Type: Terminal Boards

  • Country of Origin: USA

  • Payment:T/T, Western Union

  • Shipping port: Xiamen

  • Warranty: 12 months

GE DS200TBCAG1A Mark V RTD Terminal Board

Configured for high-accuracy temperature acquisition in Mark V automation platforms, the GE DS200TBCAG1A (DS200TBCAG1A RTD Terminal Board) provides direct physical/electrical execution. This hardware component routes low-level thermal resistance signals from field-mounted platinum, nickel, and copper RTD sensors directly into the internal processing architecture of Speedtronic control systems. The board conditions multi-channel 3-wire RTD signals, converting thermal variation into logical voltage values across turbine bearing, exhaust, and auxiliary monitoring loops without introduced transmission phase lag.

Hardware Specifications

Parameter Specification
Model DS200TBCAG1A
Brand GE
Origin United States (USA)
Weight 0.5 kg
Dimensions 33.0 cm x 17.8 cm
Operating Temp -30 to +65 deg C (Standard Mark V enclosure rating)
Power Consumption Low-power passive termination driven via backplane
Module Type RTD Termination / Analog Input Terminal Board
Supported Sensors Platinum (PT100, PT1000), Nickel (120 ohm), Copper (10 ohm)
Sensor Configuration 3-wire RTD channels
Measurement Range -200 to +600 deg C (sensor-dependent)
Measurement Accuracy +/- 1 deg C typical
Status Indicators Board LEDs for power, channel activity, and faults

Backplane Bus Communication Velocity and Firmware Flash Compatibility

The DS200TBCAG1A interfaces directly with the internal bus structure of the Mark V core, preserving high backplane bus communication velocity across simplex, dual, and triple-redundant architectures. Onboard EMI/RFI filtering arrays condition raw analog voltages before transmitting signals over the backplane bus, maintaining deterministic frame execution during transient electrical events. A firmware flash compatibility interface within the master core allows synchronized register mapping, ensuring consistent execution and channel diagnostics across various Mark V and EX2000 revisions.

Frequently Asked Questions

Q: What specific sensor types and channel configurations are supported by the DS200TBCAG1A termination board?

A: The board interfaces with 3-wire RTD configurations, supporting platinum (PT100, PT1000), nickel (120 ohm), and copper (10 ohm) RTD elements across a measurement envelope of -200 to +600 deg C.

Q: Can the DS200TBCAG1A terminal board be replaced while the turbine control panel remains energized?

A: No, field maintenance requires complete power isolation. De-energize the Mark V control rack before disconnecting terminal wiring or extracting the board to prevent arc flash across the backplane bus interface and avoid corrupting active register memory maps.

Q: How does the DS200TBCAG1A process RTD signals in triple modular redundant (TMR) control architectures?

A: The board divides individual RTD signal pathways across parallel hardware channels, fanning out conditioned analog outputs directly to the R, S, and T control cores to facilitate deterministic 2oo3 voting loops without signal degradation.

Field Installation Guidelines

Chassis Isolation and Power Suppression: Ensure all power feeds to the Mark V rack and field RTD excitation loops are completely de-energized prior to mounting or dismounting the terminal board.

Wiring and Shielding Protocols: Connect 3-wire RTD field conductors securely to the screw terminal blocks. Terminate all cable shields at the dedicated ground bar on the cabinet frame, maintaining physical separation between low-level RTD wiring and high-voltage AC power lines.

Mechanical Fastening: Secure the board firmly inside the enclosure rack using all specified mounting screw locations to establish a solid chassis ground path and ensure physical vibration resistance.

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