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  • GE DS200UCIAG1A Motherboard
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  • GE DS200UCIAG1A Motherboard

    110V-380V
    5W-130W
    1A-30A
    1 year
    30
    United States, France, Japan, Viet Nam, Australia, Russia, Germany, Italy, Arabia

    GE DS200UCIAG1A Motherboard

    • ¥22000.00
      ¥24520.00
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    Weight:3.600KG
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    • (Inventory: 36)
Description

GE DS200UCIAG1A Motherboard


GE DS200UCIAG1A Motherboard

Part Number DS200UCIAG1A Manufacturer General Electric Country of Manufacture As Per GE Manufacturing Policy Series Mark VI/VIe Function Module Availability In StockDS200UCIAG1A is a UC2000 Motherboard developed by GE. It is a part of Drive Control system. It's a motherboard that's situated on the system's R core. The connectors needed to mount the UCPB CPU daughter board, the PANA ARCNET no-LAN driver board, up to two GENI boards, and a PDAD hard drive are provided by the board. 

Fuel skid pressure signals from the TCSA board are translated on this board using an inbuilt 196 microprocessor before being transferred to and written to the UCPB board. The control sequence software then employs these signals. Features The main printed wiring board in the UC2000 is called the UCIA. The UCPB and ELB912G are two additional boards that can be mounted using the connectors found on this board (GENI). One jumper, JP1, which is solely used for manufacturing tests, is included on the UCIA board. When the process specifies, test-points, TPI, and TP2 are used for diagnostics. 

The process software defines the LEDs that make up DNI. The fan on the UCPB board is powered by S V through the fan connector (P14) (optional). Board Replacement Procedure Verify that the unit is completely powered down. Loosen the top middle thumb screw on the outside of the door to open the unit's door. Plastic clips hold the UCIA in place (holders). Disconnect the microGENI daughterboard(s) that are linked to the UCIA before removing the UCIA/UCPB assembly from the holder. Disconnect all corresponding connectors. Disconnect all cords gently as follows: Pull the tab if the cable has one. 

Put one hand on either side of the cable connector that connects to the board connector when using a ribbon cable. Use both hands to carefully pull the cable connector. Never pull on the ribbon cable. To release each wire from a screw terminal connector, just unscrew the top of each terminal. Set all switches and the pot in the same locations on the replacement (new) board as they were on the one being replaced. To protect the pins on each side and the pins on top of the UCIA board, gently remove the daughterboard(s). To release the UCIA board, push its top. Lift the assembly out of the bottom snaps with caution. To assemble the new device, align the boards with the six plastic standoffs that are already attached. 

If both ends are properly seated, the holder will click into place. To release each wire from a screw terminal connector, just unscrew the top of each terminal. Set all switches and the pot in the same locations on the replacement (new) board as they were on the one being replaced. To protect the pins on each side and the pins on top of the UCIA board, gently remove the daughterboard(s). If the daughterboard were taken out, put them back in place and reattach all the wires, making sure they are properly positioned at both ends.

ABOUT THE DS200UCIAG1A

This DS200UCIAG1A PCB's greater Mark V Turbine Control System Series was one of the later Speedtronic systems, and is rather self-explanatory, as it was created and distributed by General Electric for the management of industrial turbine systems of various sizes and complexity. This device's greater Mark V Series can be considered a Speedtronic system as it exists as one of the lastly-developed GE Mark product series to incorporate the patented Speedtronic control system technology across a range of its offerings. The Speedtronic control system technology seen in this DS200UCIAG1A Board and its greater Mark V Series was first seen alongside the release of the previous Mark I Series in the mid to later 1960s. While pertinent to some newer-developed possible alternative energy applications, this DS200UCIAG1A device's greater Mark V Turbine Control System Series must still be considered obsolete as a whole, as it truthfully exists as a now-obsolete legacy product series discontinued for manufactured by General Electric due to a manufacturer-identified functional series obsolescence in one of the many years past its initial GE Series rollout.

Hardware Tips and Specifications

The DS200UCIAG1A is a motherboard that is located on the core of the Mark V Speedtronic system. The DS200UCIAG1A is used to provide the connectors required for mounting the UCPB CPU daughter board, the PANA ARCNET no-LAN driver board, and up to two GENI boards along with a PDAD hard drive. This DS200UCIAG1A board is built with a 196 microprocessor onboard that is used to translate fuel skid pressure signals from the TCSA board, which are then sent to and written to the UCPB board. These signals are then used by the control sequence program. Given the fact that this DS200UCIAG1A PCB is a member of a now-obsolete legacy General Electric product series, it is not surrounded by any great amount of retailer-provided original instructional manual materials online for the purposes of this DS200UCIAG1A personalized product page here. With this true, the DS200UCIAG1A functional product number itself can be considered decently-strong source of DS200UCIAG1A Board hardware component and component specification information; as it codes for these details in a series of consecutive functional naming segments. For instance, the DS200UCIAG1A functional product number begins with the dual-functional DS200 series tag delegating this DS200UCIAG1A PCB's normal Mark V Series assembly as well as its domestic location of original manufacture. Some of the other relevant hardware details revealed through the DS200UCIAG1A functional product number includes this DS200UCIAG1A PCB's:

UCIA functional product abbreviation

Normal PCB coating style

Group one Mark V Series product grouping

A-rated primary functional product revision


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