BTB24-700BRG

Thyristors - TRIACs

A TRIAC is a type of thyristor (Thyristor = TRIode for Alternating Current) which is an electronic component that is based on voltage triggered switch technology. It is capable of controlling electrical power from both directions, and it is especially useful in applications such as AC dimmers, electric motor speed control, and light switch systems.

The BTB24-700BRG is a specific type of TRIAC which is made by Toshiba. This TRIAC has a very wide operational input voltage range of 65 to 800V and a maximum peak repetitive current of 700mA, so it is capable of handling a large amount of electrical power. Furthermore, it also includes a built-in protection circuit which helps it resist a broad range of interference such as spikes and surges.

The general working principle of a TRIAC is relatively simple. When a gate pulse is applied to the TRIAC, it allows the current flow between two of its terminals. When the current passes through the TRIAC, it triggers the gate that controls the current flow and activates the circuit, thus controlling the power in the system.

The BTB24-700BRG is mainly used in applications that require a large amount of power to be controlled. These applications typically involve controlling high voltage and current levels in a precise way, so the TRIAC’s wide operating range and built-in protection circuitry make it an ideal choice. It can be used in industrial and domestic applications such as AC dimmers, electric motor speed control, and light switch systems.

To summarize, the BTB24-700BRG is a type of TRIAC made by Toshiba. It has a wide operational input voltage range and a built-in protection circuitry that helps to resist a broad range of interference. Furthermore, it is mainly used in applications that require a large amount of power to be controlled. These applications typically involve controlling high voltage and current levels in a precise way. The general working principle of a TRIAC is that when a gate pulse is applied to it, it allows the current flow between two of its terminals and thus controls the power in the system.