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Mark VIe Series IS200TSVOH1BAA Servo I/O Terminal Block

Specification:

Product Number: IS200TSVOH1BAA

Manufacturer: General Electric

Series: Mark VIe

Product Type: Servo I/O Terminal Block

Number of Inputs: 6 LVDT

Number of outputs: 2

Supply voltage: 24 V DC

Analog output current: 0-20 mA

Excitation voltage: 24 V dc

Maximum lead resistance: 15 Ω

Analog output current: 0-20 mA

Operating temperature: 30 to 50 °C

Dimensions: 17.8 cm H x 33.02 cm

Frequency: 50 or 60 Hz

Technology: Surface mount

Weight: 2 lbs

Country of origin: USA

Manual: GEH-6421

Functional Description:

The IS200TSVOH1BAA is a servo I/O terminal board www.cniacs.com manufactured and designed by General Electric as part of the Mark VIe series used in GE’s distributed turbine control systems. The servo input/output (TSVO) terminal block is connected to two electrohydraulic servo valves that actuate steam/fuel valves. The valve positions are measured using LVDTs. Two cables are connected to the VSVO using the J5 plug on the front of the VSVO and the J3 or J4 connectors on the VME rack. the TSVO provides a simplex signal through the JR1 connector and fans out the TMR signal to the JR1. JS1 and JT1 connectors. Plugs JD1 or JD2 are used for external tripping of the protection module.

Installation:

Connect the sensor and servo valve wires directly to the two I/O terminals on the terminal block as shown in Figure Servo Terminal Block Wiring. Each module is secured with two screws and has 24 terminals that accept wiring up to #12 AWG. The shield terminal strip connected to chassis ground is immediately to the left of each terminal. Connect the external trip wires to JD1 or JD2. Connect the J5 connector to the front of the VSVO board in racks R, S, and T. Connect the J5 connector to the front of the VSVO board in racks R, S and T. Connect the J1 connector to the VME rack underneath the VSVO in racks R, S, and T.

Operation:

The VSVO provides four channels including bi-directional servo current outputs, LVDT position feedback, LVDT excitation, and pulse rate flow inputs.The TSVO provides excitation for, and accepts inputs from, up to six LVDT valve position inputs. One, two, three, or four LVDTs can be selected for each servo control loop, and if three inputs are used, they can be used for gas turbine flow measurement applications. These signals are transmitted through the TSVO and sent directly to the front of the VSVO board at J5. Each servo output is equipped with a firmware-controlled, independent suicide relay that short-circuits the VSVO output signal to common in the event of a power failure and returns it to the nominal limit when a manual reset command is issued. Diagnostics monitor the output status of each servo voltage, current, and suicide relay.

Description:

General Electric’s IS200TSVOH1BAA circuit board assembly is part of the company’s Mark VI turbine control system. The Mark VI has been monitoring and controlling industrial turbine systems for decades. Meanwhile, Speedtronic systems have been in use since the late 1960s.

This IS200TSVOH1BAA is used as a servo valve termination board. While MKVI systems use many different termination boards, this particular board is a barrier type board that uses screws to clamp the wire connections. When connecting wires to the terminals, it is important to strip the wires to the correct length; otherwise, the screw clamps will be difficult to access.

This IS200TSVOH1BAA has two termination blocks located on one side of the board. Other connectors used on the board include d-shell connectors and vertical plugs. The board has six jumper switches that can be used to change the way a particular circuit works. Each jumper switch on the board has multiple settings. Before removing a jumper from the unit, be sure to make note of the way the jumpers were set on the previous board; best practice suggests duplicating these settings on the new assembly.

Other board components include relays, transformers, ICs, and transistors. For more information on these components and how the board should be located, wired, installed, and maintained, refer to the GE Speedtronic manual.

Mark VIe Series IS200VSVOH1B VME Servo Control Panel

The IS200VSVOH1B is a VME servo control board manufactured by General Electric as part of the Mark VI series used in gas turbine control systems. The four electrohydraulic servo valves that operate the steam/fuel valves are under the direction of the servo control (VSVO) board. Typically, two servo terminal boards are used to separate these four channels (TSVO or DSVO). The valve position (LVDT) is determined using a linear variable differential transformer.

The VSVO performs a cyclic control algorithm. Three cables are connected to the VSVO at the J5 plug on the front panel and at the J3/J4 connectors on the VME rack. the JR1 connector is used for the

TSVO to provide simplex signals, while the JR1. JS1 www.cniacs.com and JT1 connectors are used to fan out TMR signals. The external trip of the protection module is inserted into JD1 or JD2.

IS200VSVOH1B Installation

Close the VME’s processor rack.

Place the board in place, then hand press the top and bottom ties into the base of the edge connector.

Tighten the plus screws at the top and bottom of the front panel.

The cable connections to the TSVO terminal board are made at the lower J3 and J4 connectors of the VME rack. They are locking the connections in order to secure the cables. Start the VME rack and check the diagnostic indicators on the front panel.

IS200VSVOH1B Operation

LVDT position feedback, LVDT excitation, bi-directional servo current outputs, and pulse rate flow inputs are contained within the four channels of the VSVO.

The TSVO can provide excitation for up to six LVDT valve position inputs, and the TSVO accepts inputs from them as well. For each servo control loop, one, two, three or four LVDTs can be selected.

For applications measuring gas turbine flow, three inputs are provided. These signals are routed through the TSVO and sent directly to J5 on the front of the VSVO board. when power is lost, each servo output has a dedicated suicide relay which, when controlled by firmware, short-circuits the VSVO output signals to common and then returns to normal operation after a manual reset command.

Each servo’s output voltage, current, and suicide relay are monitored through the diagnostic function.

Mark VIe Series IS200TVIBH2B Vibration Terminal Block

Vibration Terminal Board IS200TVIBH2B General Electric’s Mark VIe series, which interfaces with VVIB boards, must maintain the same functionality. This board can be connected to up to three VVIB boards in the same series.

GE IS200TVIBH2BBB The IS200TVIBH2B is a turbine control line module.

It is a high-performance, high-reliability module designed to meet the demanding requirements of turbine control applications.

The module is designed for use in a variety of applications including power generation, oil and gas, and petrochemicals.

The vibration termination board IS200TVIBH2B is one of the boards in the Mark VIe control system designed by General Electric.

This board is not compatible with any of the boards in the Mark VIe family, with the exception of the VVIB board. This board will have similar functionality to the TVBA board.

This board can be used not only in Mark VIe systems but also in Mark VI systems.

When the TVIB board is used in a Mark VI system, it can be supported in a TMR or Simplex system.

Up to two panels can be used to connect to the VVIB board. When this board is used in a TMR system, a single TVIB board will connect to three VVIB boards.

The IS200TVIBH2B board does not have any potentiometers and does not require any calibration.

On the face of the board, there are sixteen jumper switches that can be modified to suit the user’s needs. There are two barrier terminals for different types of vibration.

Technical Specifications

Number of I/O channels: 16

Input Type: Analog

Input range: 0 to 10 V

Output type: analog

Output range: 0 to 10 V

Accuracy: 0.1%

Resolution: 12 bit

Sample rate: 100 kHz

MTBF: Over 100.000 hours

APPLICATIONS

Power Generation

Oil & Gas

Petrochemical

Chemical

Food & Beverage

Pharmaceuticals

Water and Wastewater

MKVI Gas Turbine Control System IS200TBCIH1C Contact Input Terminal Blockv

IS200TBCIH1C Contact Input Terminal Block

The IS200TBCIH1C is an important part of the GE Speedtronic MKVI gas turbine control system and is used as an analog output terminal board.

It helps to generate and distribute the analog output signals that are critical for monitoring and controlling the various devices in the turbine system.

The board is equipped with two long green terminals, each of which can accommodate up to 24 terminals, ensuring efficient connections.

Features such as noise and surge suppression, current loading capability and simplified hardware configuration make it an integral part of the precise control and management of turbine operations.

Specification

Product Type: Terminal Block

Manufacturer: General Electric

Series: MKVI Series

Description: Analog Output Terminal Block

Terminals: Two long green blocks with up to 24 terminals per block

Connections: 6 jack connector ports with 37 female connector points per port

Features:

Terminal Block Design: This IS200TBCIH1C features a rugged rectangular design with two long green terminals that provide ample connectivity for analog output signals.

Connectivity: The board features 6 jack connector ports, each equipped with 37 female connector points for seamless integration with external devices.

Potentiometers: 16 small potentiometers, organized in two rows, provide enhanced control and adjustment capabilities, allowing fine tuning of the output signals.

Noise and Surge Suppression: Filters designed to reduce high frequency noise and suppress surges, ensuring signal integrity and system stability.

Current Load Capability: The first 21 www.cniacs.com outputs are capable of handling 2.5 mA of current per point, and the last three outputs are loaded with 10 mA to meet varying output requirements.

Hardware Configuration: Simplified configuration without hardware setup or jumpers simplifies integration within the Speedtronic MKVI system.

Reliability: Known for its reliability and durability, it ensures consistent performance in demanding turbine control environments.

Compatibility:

The IS200TBCIH1C terminal block is fully compatible and integrated into the Speedtronic MKVI gas turbine control system.

It is terminated via external I/O for use primarily with GE Speedtronic Mark VI series turbine control systems.

The board’s multi-layer PCB design, fitted with SMD components and connectors, ensures compatibility with different system architectures and configurations.

GE’s ongoing revision demonstrates GE’s ongoing efforts to improve compatibility and integration with the Speedtronic MKVI system.

Mark VIe Series IS2020JPDBG01 Power Distribution Boards

Functional Description:

The IS2020JPDBG01 is a power distribution board manufactured and designed by General Electric as part of the Mark VIe series used in GE distributed control systems.

The JPDB board for AC power distribution regulates, monitors, and decentralizes AC power. The module contains two line filters and an IS200JPDB board.

The module contains two independent AC power distribution circuits, each rated at 20 A at 115 or 230 V AC.

The input circuits should be wired in parallel to prevent PPDA alarms when only one AC power source is available.

Each circuit has one fuse output and three fuse and switch branch circuit outputs. the JPDF 125 V DC power distribution module has an optional connection.

The IS200JPDB has status feedback for all fuse circuits and passive supervisory circuits for both AC ranges.

On connector P1 is the supervisory circuitry for connecting cables to the board containing the power supply diagnostic PPDA I/O packages.

Port P2 on the IS200JPDB allows monitoring signals from other power distribution system cards to pass through.

Compatibility:

The JPDE, JPDF, JPDS, and JPDM feedback signal P1 and P2 connections on the IS2020JPDB are compatible, resulting in a PPDA I/O package. The AC input on the JPDF module of the same name can be used with connector JAF2.

Installation:

In the PDM cabinet, the IS2020JPDB module is mounted vertically on a metal rear base. The protective grounding system and the IS2020JPDB sheet metal must be connected.

For the first AC circuit, input power is delivered to www.cniacs.com terminals AC1H (line) and AC1N (neutral), and for the second AC circuit, input power is delivered to AC2H (line) and AC2N (neutral).

There must be a grounded neutral connection on both AC inputs. Follow the documentation for the system’s output circuit connections.

If the distribution system has a PPDA Power Diagnostics I/O package, a 50-pin ribbon cable is required to connect JPDB connection P1 to connector P2 on the board with the PPDA. Other core PDM boards can use the P2 connector for this connection.

Operation:

The terminal block on the right side of the JPDB module has two AC power supplies connected to it. Below the IS200JPDB board, the AC power is directed to the AC line filter assembly.

The J1 connector on the JPDB circuit board is connected to the filter assembly via the wire harness.

The circuit board for the IS2020JPDBG01 module is the IS200JPDBH1A. since J1 is connected directly to the output branch circuit, this board is not used for AC power selector connections.

The IS200JPDBH2A board is used by the IS2020JPDBG02 module. This board requires an AC power selector.

The JSS1 connector is mounted on one of the boards.JSS1 receives externally filtered AC power from connector J1. To feed the power supply, the branch circuit outputs, and the source selector outputs are returned to JSS1.

The two DACA power conversion modules are powered by JAF1. which feeds power directly from input connector J1 to the adjacent optional JPDF board.

For systems utilizing 125 V DC batteries, the DACA modules are used as an AC backup power supply that converts AC power to 125 V DC power.

Woodward 2301A Electronic Load Sharing and Speed Control

Description

The 9905/9907 series of the Woodward 2301A controls load sharing and speed of generators driven by diesel or gasoline engines, or steam or gas turbines. 

These power sources are referred to as “prime movers” throughout this manual.

The control is housed in a sheet-metal chassis and consists of a single printed circuit board. All potentiometers are accessible from the front of the chassis.

The 2301A provides control www.cniacs.com in either isochronous or droop mode.

The isochronous mode is used for constant prime mover speed with:

 Single-prime-mover operation;

 Two or more prime movers controlled by Woodward load sharing control systems on an isolated bus;

 Base loading against an infinite bus with the load controlled by an Automatic Power Transfer and Load (APTL) Control, an Import/Export Control, a Generator Loading Control, a Process Control, or another load-controlling accessory.

The droop mode is used for speed control as a function of load with:

 Single-prime-mover operation on an infinite bus or

 Parallel operation of two or more prime movers.

The following is an example of the typical hardware needed for the 2301A system controlling a single prime-mover and generator:

 A 2301A electronic control

 An external 20 to 40 Vdc power source for low-voltage models; 90 to 150 Vdc or 88 to 132 Vac for high-voltage models

 A proportional actuator to position the fuel-metering device 

 Current and potential transformers for measuring the load carried by the generator.

Applications

The 2301A 9905/9907 series electronic controls have switch-electable speed ranges. Any of these control models can be set to operate within one of the following rated speed ranges:

 500 to 1500 Hz

 1000 to 3000 Hz

 2000 to 6000 Hz

 4000 to 12 000 Hz

Honeywell UDC1200 and UDC1700 Universal Digital Controllers

Product Overview

The UDC1200 and UDC1700 are microprocessor-based 1/16 DIN and 1/8 DIN controllers that offer high functionality, high reliability and low cost.

They are designed to monitor and control temperature, pressure and level in a variety of applications such as environmental chambers, furnaces, ovens, packaging machines and other applications in the plastics, food and beverage industries.

other applications in the industry.The UDC1200 and UDC1700 are easy to configure and use with large, easy-to-read dual 4-digit displays and touch-sensitive keypads.

Their outstanding flexibility allows you to configure any unit for any application and make changes when needed.

For the thousands of satisfied UDC1000/1500 users, the UDC1200/1700 controllers are backward compatible with existing UDC1000/1500 applications and installations.

Functional Features

Dual Displays

Two 4-digit displays with 7 LED segments, each configurable as

 PV and SP (non-adjustable)

 PV and SP (adjustable)

 PV and ramp SP

 PV only

Easier Configuration

Two different configuration levels (Configuration Mode and Setup Mode) provide easy access to parameters.

4-digit security code prevents unauthorised changes.

Positive Moisture Protection

Meets NEMA 3 / IP65 standards for frontal dust and water resistance.

Universal Inputs

Accepts seven different types of thermocouple, RTD, www.cniacs.com current and voltage linear inputs. All inputs can be configured as standard.

Universal Power Supplies

The UDC1200 and UDC1700 can operate on any line voltage from 50/60 Hz, 90 Vac to 264 Vac. Optional 24/48 Vac/dc models are also available.

Easy Upgrade

All option boards have no jumpers and are automatically detected by the instrument.

Easy Output Selection

All of the instrument’s outputs, including the control output, can be changed to meet the customer’s exact needs.

Kongsberg RCU500 Remote Control Unit

The RCU 500 is a stand-alone computer designed for process control.

Typical applications include

– Dynamic positioning systems

– Vessel control systems

– Process control systems

– Safety systems

Functional Features

– Power PC processor 8245. 400 MHz, running AIM and DP www.cniacs.com applications, 32 MB SDRAM memory and 16 MB flash memory

– Built-in self-test (BIST) device and error reporting system (via operator station)

– Watchdog with system status output

– Four general-purpose digital input channels

– Four general-purpose digital output channels

– Twelve general-purpose RS-232/RS-422/RS-485 serial line interfaces

– Four isolated RS-232/RS-422/RS-485 general-purpose serial line interfaces

– Dual CAN bus interfaces (1 Mbps)

– Dual Pro bus (12 Mbps)

– Serial Process Bus (SPBus) interface to RIO 400 remote I/O devices

– Dual 100 Mb Ethernet LAN connectors

– Prepare for redundant RCU operation

– Allows “hot swap” of RCU 500 in redundant systems

– Built-in high temperature and cooling fan alarms

– Easy to install and replace:

– DIN standard rail mounting

– Plug-in connection

– LED status indicator on the front

A-B 6189-RPEHA VersaView CE Logic Module

Description The 6189-RPEHA Logic Module is an Allen-Bradley/Rockwell Automation Logic Module in the VersaView CE Series.

It can be used as part of a human-machine interface when connected to a communication module and a display module.

The 6189-RPEHA Logic Module is AC powered and operates from 100 to 240 volts AC.

The 6189-RPEHA Logic Module has an operating temperature range of 32 to 131 degrees Fahrenheit and a non-condensing relative humidity of 10 to 90%.

The Allen-Bradley 6189-RPEHA is a VersaView CE logic module.

Allen-Bradley has discontinued this product and replaced it with the new 2711P-RP7A PanelView Plus CE Logic Module.

It is an intelligent controller that automates machine processes without user intervention.

Its modern, cost-effective and flexible design makes it ideal for complex or simply installed industrial applications.

It is compatible with all VersaView and PanelView Plus CE terminals.

The 6189-RPEHA module requires 100 – 240V AC input power.

For storage, it has a 2711P-RW3 built-in CompactFlash module containing 256 MB of user memory.

It is marine certified and meets the www.cniacs.com highest standards in the industry. All VersaView devices are now discontinued.

Allen-Bradley has rebranded it as part of the PanelView Plus product family.

It is suitable for use in a clean, dry, overvoltage Class II standard environment with an operating temperature of 0 – 55 °C (32 – 131 °F), an operating shock of 30 g, and a relative humidity of 5 – 90% (non-condensing).

Motorola MVME7100 VMEbus Single Board Computer

The MVME7100 increases performance and functionality while protecting the underlying investment in the VMEbus and related technologies

Up to 1.3GHz system-on-chip NXP MPC864xD, featuring dual PowerPC® e600

processor cores, dual integrated memory controllers, DMA engine, PCI Express

interface, Ethernet and local I/O

Extended temperature (-40 °C to +71 °C) and ruggedised board variants available

Four Gigabit Ethernet ports

Up to 2GB of DDR2 ECC memory, 128MB NOR flash and 2GB, 4GB or 8GB NAND flash

USB 2.0 controller for cost-effective peripheral integration (commercial temperature only)

2eSST VME bus protocol with 20MB/s VME bus transfer rate

Dual 33/66/100 MHz PMC-X interfaces, expandable with industry-standard modules

The MVME7100 provides a development path for VMEbus customers with applications on previous generation VMEs, in particular the MPC74xx processor. The system-on-chip implementation offers power/heat dissipation, reliability and lifecycle benefits that are typically found in other architectures.

which are typically not found in other architectures.

The SMART EC MVME7100 single board computer (SBC) helps OEMs of industrial, medical and defence/aerospace equipment to increase performance and functionality

to increase competitive advantage while protecting www.cniacs.com the underlying investment in the VMEbus and related technologies.

Customers can retain their VMEbus infrastructure (chassis, backplanes and other VMEbus and PMC boards) while improving performance and extending lifecycles.

In addition, the extended lifecycle of SMART EC computing products helps to minimise disruption to development and support due to frequent product replacement.

The combination of faster processors and the 2eSST VMEbus interface provides significant performance improvements. New cost-effective peripherals can be easily integrated using the USB interface.

The extended temperature (-40 °C to +71 °C) variant supports a wide range of operating and storage temperatures, in addition to increased shock tolerance.

This enables the board to operate in harsh environments while maintaining structural and operational integrity.

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