Part No.: IS230TNCIH4C
Manufacturer: General Electric
Product Type: PCB
Communication Types: UDH or IONet
Humidity: 5-95% non-condensing
Redundancy: Type Simplex, Dual, TMR
Repair: 3-5 Days
Country of Manufacture: United States (USA)
Series: Mark VIe
IS230TNCIH4C is a Module developed by GE. It is a part of Mark VIe control system. It is compatible with different rack configurations. This PCB has been engineered to seamlessly fit into either a thirteen or twenty-one VME slot-type rack, providing system integrators and engineers with flexibility in their choice of setup. This adaptability ensures that the board can be seamlessly integrated into a variety of operational environments, enhancing its utility across various industries. The board plays a crucial role within control system architectures, contributing to the seamless functioning of simplex and triple redundant systems. When utilized within a simplex architecture, it often collaborates with a control module, collectively enabling the system to execute tasks with precision and efficiency. In this scenario, the board's capabilities enhance the overall performance of the control module, ensuring reliable and optimized operations. In TMR configurations, the board takes on a more extensive role, aligning with an IONet and a main processor card in addition to the control module. This expanded integration facilitates a robust and resilient control system capable of mitigating potential failures through redundancy. By working in harmony with multiple components, the board ensures continuous and uninterrupted operation, critical in scenarios where downtime is not an option.
- On the board, there are a total of twenty-five metal oxide varistors. The board also includes two three-pin female plug connectors.
- This circuit board can be installed in a VME slot-type rack with thirteen or twenty-one slots. When used in a simplex architecture type system, it will typically be used with a control module, but if the chosen architecture is triple redundant, it will be used with an IONet, main processor card, and the control module.
The TNCI model can be used with two types of communication: the Unit Data Highway, which is an Ethernet-based LAN type of communication, and the IONet communication. The UDH communication driver is usually associated with the main processor card.
- While the board contains a number of capacitors, resistors, and other small components, the main visual components of this model are the two terminal blocks, three sub-D pin connectors, two female plug-type connectors, and the twenty-five metal oxide varistors. The two terminal blocks, labeled TB1 and TB2, are located near the board's bottom edge, and the metal oxide varistors are located just above the two terminal blocks. Each of the three sub-D pin connectors, which are located near the top edge of the board, has 37 pins.
- A streamlined system architecture is needed for speed control systems for tiny turbines. The usage of simplex control helps to save money and space. The bigger T-type terminal boards used in TMR systems can be replaced by smaller DIN-rail mounted terminal boards. Since the D-type terminal boards directly connect to the control chassis to communicate with the I/O boards, IONet is not required.
- A VCMI board in the VME rack enables two-way communication between the I/O processor boards and the controller. Other system elements, like an operator interface or PLC, are communicated with using the controller's Ethernet port. The controller Genius port can be used to connect additional PLC I/O to the system.
- The system employs a low voltage variant of the common VME rack power supply and is powered by 24 V dc. The number of inputs and outputs, as well as the grounding facilities, are different, and the boards do not support TMR, but the signal conditioning on the DIN-type terminal boards is always the same as on the T-type boards, and the I/O standards stated above apply.
- Space is conserved by using high-density Euro-Block terminal blocks that are permanently mounted. The connectors on the blocks can accommodate up to two or one 12 gauge wires. The most common wire size is 18
- Communication Types: UDH or IONet
- Humidity: 5-95%, non-condensing
- Redundancy Type: Simplex, Dual, TMR
System IONet Components
In the realm of system IONet components, precision and compatibility are paramount. These components are the lifeblood of a well-functioning Mark VIe Control IONet, and understanding their intricacies is key to ensuring seamless operation. Here, we delve into the core elements of the system:
Validated Fiber and Switch: Ensuring Reliability
- Utilize Single-Mode Fiber-Optic (SMF): The backbone of the Mark VIe Control IONet relies on Single-Mode Fiber (SMF), a validated and approved medium for data transmission.
SMF ensures that data travels efficiently and reliably over long distances, a critical aspect in control systems where data integrity is non-negotiable.
- The N-Tron 508FXE2-SC-15 Switch: Within this robust system, the N-Tron 508FXE2-SC-15 switch reigns supreme as the sole validated and approved choice.
Opting for other switches can introduce risks, potentially leading to operational issues or even damage to essential equipment.
Limit on Switches in Series: Optimizing Network Performance
- Do not exceed five switches placed in series: To maintain network performance and stability, a crucial rule of thumb is not to exceed five switches connected in series. Going beyond this limit risks disrupting network efficiency, latency, and overall system reliability.
Topology Design: Shaping Data Flow
- Design the network topology as a star: For optimal data flow and reduced latency, it is advisable to shape the network topology in a star-like configuration. In this setup, each switch connects directly to a central hub or controller, minimizing data traversal and maximizing efficiency.
System Architecture Compatibility
- In a simplex architecture, the board typically pairs with a control module.
- This configuration suits scenarios where single-redundancy operation is sufficient.
Triple Redundant (TMR) Configuration
- In a TMR configuration, this board plays a crucial role alongside an IONet, the main processor card, and the control module.
- TMR setups are designed for maximum reliability and fault tolerance, ensuring system continuity even in the face of component failures.
Communication Types: Versatile Connectivity
Unit Data Highway (UDH)
- UDH serves as an Ethernet-based LAN communication type.
- Typically associated with the main processor card within the Mark VI System, UDH facilitates high-speed data exchange.
- This board seamlessly integrates with IONet communication, a versatile protocol that enables efficient data sharing within the control system.
- IONet is a vital communication channel for ensuring the coordination and operation of various system components.
- Signal Integration: Turbine control systems often involve multiple sensors and switches that provide essential feedback and control inputs. These may include signals from temperature sensors, pressure sensors, flow meters, safety switches, or emergency stop buttons. The Contact Input DIN-Rail Module is used to collect these signals and bring them into the control system for monitoring and decision-making.
- Protection and Isolation: These modules typically offer electrical isolation and protection to prevent electrical interference and ensure the safety of the control system. Turbine environments can be electrically noisy, and isolation helps ensure that unwanted signals or electrical disturbances do not impact the control system's operation.
- Signal Processing: The module may also perform basic signal processing functions, such as debouncing switches, converting analog signals to digital formats, or scaling input values to the desired range for further processing. This processing is essential for ensuring that the signals are in a suitable format for control algorithms.
- Status Indication: Many Contact Input DIN-Rail Modules provide visual or remote status indications to inform operators or the central control system about the condition of the inputs. This is crucial for quickly identifying any issues or safety concerns.
- Communication and Integration: Some modules may have communication capabilities, allowing them to transmit the input data to the main turbine control system. This integration enables real-time monitoring and control, allowing operators to make informed decisions based on the inputs received.
- Fault Detection and Safety: The modules can be programmed to detect fault conditions or safety-critical events. For example, if a safety switch is triggered or if sensor values go beyond acceptable limits, the module can initiate emergency shutdown procedures or trigger alarms to ensure the safety of the turbine and the surrounding environment.
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Frequently Asked Questions
What is IS230TNCIH4C?
It is a Module developed by GE
What is a VME slot-type rack?
A VME slot-type rack is an enclosure used for housing electronic circuit boards. It provides a standardized interface for connecting various modules together and specifies the mechanical dimensions, power supply requirements, and communication protocols for VME modules.
What is triple redundant architecture?
Triple redundant architecture uses three separate modules or components to perform the same function, providing backup and redundancy in case of failure. This type of architecture is typically used in critical or safety-critical applications.
What is Unit Data Highway (UDH) communication?
Unit Data Highway (UDH) is an Ethernet-based LAN type of communication used in the TNCI model. It is associated with the main processor card and is one of two communication types that can be used with this model.
What redundancy types are supported by the board?
The board supports three redundancy types: Simplex, Dual, and TMR (Triple Modular Redundancy). The choice of redundancy depends on the system architecture.
How is the board typically mounted, and in what types of racks can it be used?
The board can be mounted in either a thirteen or twenty-one VME slot-type rack. Its mounting configuration depends on the specific application and system requirements.
What is the role of the terminal blocks on the module?
The two terminal blocks (TB1 and TB2) are located near the bottom edge and are used for connecting various components and signals within the system.
What is the function of the three sub-D pin connectors?
The three sub-D pin connectors, each with thirty-seven pins, are used for specific data and signal connections, contributing to the functionality of the board within the system.