IS200MVRBH1A - I/O Interface Board

IS200MVRBH1A - I/O Interface Board IS200MVRBH1A - I/O Interface Board

World Of Controls understands the criticality of your requirement and works towards reducing the lead time as much as possible.

IS200MVRBH1A - I/O Interface Board is available in stock which ships the same day.

IS200MVRBH1A - I/O Interface Board comes in UNUSED as well as REBUILT condition.

To avail our best deals for IS200MVRBH1A - I/O Interface Board, contact us and we will get back to you within 24 hours.

SPECIFICATIONS

Part No.: IS200MVRBH1A
Manufacturer: General Electric
Country of Manufacture: United States of America (USA)
Size: 11.00 inch x 8.40 inch
Technology: SMT and through-hole, multi-layer
Temperature: 0 - 60 oC
Product Type: I/O Interface Board
Availability: In Stock
Series: Mark VIe

Functional Description

IS200MVRBH1A is an I/O Interface Board developed by GE. It is a part of the Mark VIe control system. MVRB within the PMVE (Programmable Monitoring and Viewing Equipment) serves as an essential I/O board that utilizes the high-speed serial link (HSSL) for its operations. This board is specifically engineered to replace the Mark V TCQB board, offering enhanced functionality and compatibility within the existing system architecture.

Features

  • Within the PMVE framework, specialized software code is integrated to facilitate seamless communication and precise control over the MVRB's analog and digital I/O functions. This software not only ensures efficient data transfer but also enables the PMVE to effectively manage and monitor various inputs and outputs, crucial for maintaining operational integrity and performance.
  • Furthermore, the MVRB's configuration parameters are carefully set to customize its operation according to specific system requirements and environmental conditions. These parameters enable operators to fine-tune the MVRB's behavior, optimizing its performance and ensuring reliability in diverse operational scenarios.
  • The MVRB integrates sophisticated algorithms designed to analyze vibration data in real time. These algorithms identify abnormal vibration patterns and trigger protective measures to prevent equipment damage or failure.
  • 1/2x, 1x, and 2x Shaft Displacement and Phase measurements are critical for analyzing shaft dynamics and alignment. The MVRB accurately calculates and monitors shaft displacement relative to rotation speed (1/2x, 1x, and 2x), providing essential data for assessing mechanical integrity and optimizing performance.

Analog I/O

  • LM Prox Vibration Inputs: These inputs monitor proximity vibration levels using advanced sensors, providing real-time data on mechanical vibrations within the machinery.
  • Prox Vibration Inputs: Similar to LM Prox inputs, these sensors detect and measure vibration levels, contributing to overall condition monitoring and predictive maintenance efforts.
  • Prox Position Key Phasor: This input is crucial for precise timing and synchronization within the system, essential for accurate phase measurements and synchronization tasks.
  • LVDT/LVDR: LVDT (Linear Variable Differential Transformer) and LVDR (Linear Variable Differential Resolver) inputs provide precise measurements of linear displacement or position, ensuring accurate feedback for control and monitoring purposes.
  • 4-20mA or 200mA Output: This output capability allows the MVRB to transmit control signals or analog data within the specified current range, supporting various control and monitoring applications.

Installation

  • Power Verification: Before beginning installation, ensure that power to the core system is completely turned off to prevent any electrical hazards or damage during the procedure.
  • Disconnect Cables: Carefully disconnect all ribbon cables and power cables from the existing board connectors. Note that the cables should be handled with care to avoid damage, and observe that the red or blue stripes on the cables are consistently positioned on the left side for correct alignment during reinstallation.
  • Release Board Tabs: While securely holding the board in place, gently press up on the three tabs located at both the top and bottom of the board. This action releases the board from its secured position within the housing.
  • Remove Old Board: Once the tabs are released, carefully remove the old MVRB from its slot. Place the removed board into a static bag to protect it from electrostatic discharge, which could potentially damage sensitive electronic components.
  • Prepare New MVRB: Remove the new MVRB from its static bag, ensuring to handle it properly to prevent any static buildup or physical damage. Position the new board correctly for installation, aligning it securely within the designated slot.
  • Reconnect Cables: Reattach all ribbon cables and power cables to the corresponding connectors on the new MVRB. Ensure each connection is secure and correctly aligned to avoid connectivity issues or potential malfunctions.
  • Connect HSSL Link Cable: Finally, connect the high-speed serial link (HSSL) cable from the PMVE to the designated port on the MVRB. This connection establishes the communication link necessary for the board to interface with the PMVE system effectively.

The WOC team can always help you with your Mark VIe requirements. For more information, please contact WOC.

Frequently Asked Questions

What is IS200MVRBH1A?
It is an I/O interface board developed by GE under the Mark VIe series.

How does the application blockware enhance equipment reliability?
By continuously monitoring shaft wobble, vibration, and balance with respect to the keyphasor, the application blockware enables early detection of abnormalities. This proactive approach helps in preventing equipment failures, optimizing maintenance schedules, and ensuring operational efficiency.

What are the benefits of integrating protection capability into the application blockware?
Integrating protection capability enhances overall system reliability by providing real-time monitoring and alerting mechanisms. This ensures timely intervention, reduces downtime, and extends equipment lifespan by mitigating potential damage from operational anomalies.

How can users optimize the use of shaft monitoring features in the application blockware?
Users can optimize shaft monitoring features by configuring settings to align with specific operational requirements and conducting regular calibration and maintenance checks. This proactive approach maximizes the effectiveness of protection capabilities and ensures accurate data interpretation for informed decision-making.