STGWT15H60F - 600 V, 15 A Trench Gate Field-Stop IGBT

The STGWT15H60F from STMicroelectronics is a high-performance 600 V, 15 A trench gate field-stop IGBT designed to offer an optimal balance between switching performance and on-state behavior, making it suitable for a wide range of high-efficiency applications. This IGBT utilizes advanced trench gate field-stop technology to achieve low on-state voltage drop (V_CE(sat)) with a positive temperature coefficient, which facilitates easier parallel operation.

With a maximum collector current of 15 A and collector-emitter voltage of 600 V, the STGWT15H60F is capable of handling significant power levels. The device features a low gate charge (Q_g), which enhances its switching performance, thus reducing switching losses and enabling high-frequency operation. This characteristic, combined with the fast recovery diode, makes the STGWT15H60F an excellent choice for resonant or hard-switching topologies.

The robustness of the STGWT15H60F is further exemplified by its high short-circuit withstand time rating, which provides an additional layer of protection against unexpected transient conditions. This ensures reliability and longevity in applications such as motor drives, uninterruptible power supplies (UPS), solar inverters, and welding equipment.

Designed for efficiency, the STGWT15H60F is also characterized by its minimized tail current and low thermal resistance, which contribute to reduced thermal management requirements. The co-packaged fast recovery anti-parallel diode also minimizes the need for additional components, thereby simplifying design and reducing overall system cost.

STMicroelectronics packages the STGWT15H60F in a TO-247 long leads package, which is known for its excellent thermal and electrical performance. The package is designed to provide good heat dissipation and ease of mounting on heat sinks, ensuring stable operation even under high power and temperature conditions.

In summary, the STGWT15H60F is a state-of-the-art IGBT that offers a combination of high efficiency, fast switching, and robustness, making it an ideal choice for designers looking to optimize their power conversion systems.