ABB 5SHX04D4502 Reverse Conducting Integrated Gate-Commutated Thyristor

Voltage Rating: The reverse repetitive peak voltage (VDRM) can reach 4500V, enabling stable operation in medium-high voltage power systems. It is suitable for application scenarios that need to handle high voltages, such as industrial power grids and large-scale power-driven equipment, providing reliable support for power conversion and control in high-voltage environments.

Current Handling Capacity: The gate trigger current (ITGQM) is 630A, demonstrating a certain current-carrying capability, which can meet the operational needs of specific power equipment and ensure stable power supply under corresponding loads.

Other Electrical Parameters: The forward current (If) can reach 400A, the reverse current (Ir) is 410μA, and the forward voltage (Vf) is 4480V. These parameters work together to ensure the stable operation and performance of the product in circuits.

Operating Temperature Range: The operating temperature range is generally -40°C to +70°C, enabling adaptation to various environmental temperature conditions, and it can be used in different regions around the world and various industrial scenarios.

High Efficiency and Reliability: Designed and manufactured in compliance with strict quality control systems, using high-quality semiconductor materials and advanced processes. It ensures long-term stable operation in complex and harsh industrial environments (such as high temperature, high humidity, and strong electromagnetic interference), reducing equipment failure rates and maintenance frequency. This provides guarantee for continuous production of enterprises and lowers operational risks and costs.

Fast Switching: Leveraging the advanced gate commutation technology of IGCT, it features extremely fast switching speed, capable of completing current conduction and interruption in an extremely short time. In scenarios with high requirements for the response speed of power systems (such as rapidly changing loads), it can quickly adjust current status, improving the dynamic performance and stability of the system, and ensuring accurate and timely power supply.

Energy Saving and High Efficiency: Through optimized internal structure and electrical design, it significantly reduces energy loss during power conversion. When applied in medium-high voltage frequency converters, it can efficiently convert input electrical energy into variable-frequency electrical energy required by motors, improving energy utilization efficiency. This helps enterprises reduce energy consumption costs, conforms to the global concept of energy conservation and environmental protection, and contributes to sustainable development.

Strong Adaptability: It can be well adapted to various power system equipment and circuit topologies. Whether in traditional industrial power drive systems or emerging complex power architectures such as smart grids and distributed energy access, it can integrate into them, realize collaborative work with other equipment, and provide convenience for building diversified and intelligent power systems.