IS200ISBDG1A - InSynchronous Bus Delay Module

IS200ISBDG1A - InSynchronous Bus Delay Module IS200ISBDG1A - InSynchronous Bus Delay Module

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SPECIFICATIONS:

Part Number: IS200ISBDG1A
Manufacturer: General Electric
Series: EX2100
Board Type: InSynchronous Bus Delay Module
Input Voltage Range: 3.3V to 5V DC
Power Consumption: ≤ 2W
Signal Voltage Levels: TTL/CMOS compatible
Maximum Delay Compensation: Up to 100 ns
Synchronization Accuracy: ±1 ns
Clock Frequency: Up to 200 MHz
Operating Temperature Range: -40°C to +85°C
Storage Temperature Range: -55°C to +125°C
Humidity: 5% to 95% non-condensing
Dimensions: 25 mm x 25 mm x 5 mm
Mounting Type: Surface-mount technology (SMT)
Repair: 3-7 Day
Availability: In Stock
Weight: 10 grams
Country of Origin: United States

FUNCTIONAL DESCRIPTION:

IS200ISBDG1A is an InSynchronous Bus Delay Module manufactured and designed by General Electric as part of the EX2100 Series used in GE Excitation Turbine Control Systems. The InSynchronous Bus Delay Module is designed to control and manage the timing and synchronization of data as it travels between different components in a system. This module ensures that data arrives at its destination accurately and at the right time, despite potential delays caused by various factors in the system. Excitation control systems are essential in maintaining the stability and performance of electrical generators. The InSynchronous Bus Delay Module within these systems ensures precise timing and synchronization of control signals, Which is vital for optimal generator operation.

FEATURES:

  • It is drilled in two corners, and each corner features a terminal connection labeled as E1, E2, E3, and E4. These terminals serve as key points for electrical connections and signal transfers. In addition to these corner terminals, the board incorporates five more connectors, each positioned on the board's edges.
  • These connectors include a male vertical pin ribbon connector (P5), a two-position terminal strip (P4) clearly labeled as '24 VDC Input,' and three additional connectors, namely P1 ('Full Duplex'), P2 ('XMIT Out'), and P3 ('RCV In'). These connectors play a pivotal role in establishing electrical connections and ensuring seamless operation within the Mark VI system.
  • Includes a DATEL dc/dc converter component, instrumental in transforming and regulating electrical power as required. These integrated circuits are the essential building blocks of the board's operation.
  • For monitoring and diagnostics, the board features two light-emitting diodes (LEDs) with distinct labels. One is identified as 'carrier detect,' while the other is marked as 'power.'
  • These LEDs provide visual cues to indicate the status of critical functions.
  • It incorporates TP test points, which are invaluable for conducting tests and inspections to ensure its proper functioning.

BENEFITS:

  • Enhanced Stability: By ensuring precise timing and synchronization of control signals, the module helps maintain generator stability, reducing the risk of power fluctuations and outages.
  • Improved Performance: Optimizes the operation of the excitation control system, leading to better overall performance of the generator.
  • Increased Reliability: Reduces the likelihood of errors and malfunctions, contributing to the long-term reliability of the power generation system.
  • Adaptability: Can be configured to work with various types of excitation control systems, making it a versatile component in the field.

SYSTEM HARDWARE:

  • The control cabinet is the central hub for the EX2100 system, housing critical components responsible for control, communication, and input/output (I/O) operations. This cabinet serves as the brain of the system, orchestrating and supervising various functions essential for the excitation process.
  • Within the control cabinet, a range of boards play a pivotal role in regulating and monitoring the power generation process. These boards are equipped with advanced control circuitry that ensures precise control over the exciter's performance. They also facilitate seamless communication with other system components and external devices.
  • The auxiliary cabinet is tasked with safeguarding power generation through a series of protection circuits and field flashing mechanisms. One of its primary functions is to handle de-excitation, which is essential for safely shutting down the excitation system when required. Additionally, the auxiliary cabinet incorporates circuits designed to suppress shaft voltage, protecting the integrity of the power generation equipment.
  • This cabinet is a guardian of power generation, ensuring that the system operates reliably and safely even under challenging conditions or when specific interventions are necessary.

WOC has the largest stock of OEM replacement parts for GE Excitation Control Systems. We can also repair your faulty boards and supply unused and rebuilt boards backed up with a warranty. Our team of experts is available round the clock to support your OEM needs. Our team of experts at WOC is happy to assist you with any of your automation requirements. For pricing and availability on parts and repairs, kindly contact our team by phone or email.

FREQUENTLY ASKED QUESTIONS:

How does the InSynchronous Bus Delay Module function in an excitation control system?

In an excitation control system, the module synchronizes control signals, manages transmission delays, adjusts signal timing, and corrects errors. This ensures optimal performance and stability of the generator by maintaining precise control of the excitation system.

Why is signal synchronization important in excitation control systems?

Signal synchronization is crucial because it ensures that control signals from various parts of the system are aligned, preventing timing discrepancies that could affect the performance and stability of the generator.

What are the benefits of using an InSynchronous Bus Delay Module in power generation?

The module enhances stability, improves performance, and increases the reliability of the excitation control system. This leads to better overall performance and reduced risk of power fluctuations and outages in power generation systems.