T7H8087504DN

The T7H8087504DN is a thyristor module consisting of two thyristors in one package. Thyristors are a type of semiconductor which can be used to switch electrical circuitry and are used in a variety of applications including electronics and telecommunications. While this type of thyristor can be used in a variety of electronic and communication applications, it is most commonly used as a gate triggered, three-phase AC switch.

The primary function of the T7H8087504DN thyristor module is to serve as a three-phase AC switch. This switch ensures reliable operation of motors and pumps by providing a controlled opening and closing of a load circuit. It contains two identical thyristors in one package, connected in inverse parallel, making it an ideal solution for three-phase applications.

The thyristor module is designed to be triggered by a gate or control signal. Once the gate signal is applied, the thyristor module allows the current to flow through the load, and the circuit is switched on. The current remains on the load until the neutral phase is removed or the circuit is reversed. This type of thyristor is typically used for motor control and is suitable for motor starting, speed control, and other applications requiring precise control of the current.

The T7H8087504DN thyristor module is suitable for use in areas where frequent switching is required and/or temperatures may vary significantly. It also offers improved reliability, with a high surge capability and a soft-start feature. The thyristor module is manufactured with a wide variety of technology including insulated gate bipolar transistors (IGBTs), metal oxide semiconductor field-effect transistors (MOSFETs), and silicon controlled rectifiers (SCRs).

The T7H8087504DN thyristor module is a powerful and reliable solution for three-phase AC switching applications, offering excellent performance and reliable switching. Its design allows for a high surge capability and soft-start switching, while its insulated gate semiconductor technology provides further advantages such as improved reliability, lower power consumption, and increased efficiency.