T1235T-8I

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A TRIAC is a three-terminal, bidirectional and unidirectional thyristor (SCR) device that can be used to control AC circuits. The T1235T-8I is a type of TRIAC which is used in various applications. In this article, we will discuss the application fields and working principles of the T1235T-8I.

T1235T-8I Application Fields:

The T1235T-8I TRIAC can be applied in various fields, including:

• Power Supply Circuits
• Heating Circuits
• Lighting Circuits
• Heating Elements
• Air Conditioners
• Electric Motors
• Appliance Control Circuits
• Battery Chargers

The T1235T-8I TRIAC can also be used in other applications that require an effective AC power switch.

T1235T-8I Working Principle:

The T1235T-8I TRIAC is essentially an electronically controlled, three-terminal switching device that is capable of handling both AC and DC currents. It is made up of multiple layered semiconductor devices, which are formed by three alternating layers of P-type and N-type silicon materials. The purpose of the layers is to control the direction of the current and its magnitude.

The way the device works is that when the Gate terminal is triggered, a small amount of electrical current is generated that triggers the semiconductor layers to become conductive. This, in turn, allows a large electrical current to flow through the device in both directions. The amount of current that is able to flow through is regulated by the voltage applied to the Gate terminal of the device.

The gate trigger voltage of the T1235T-8I TRIAC is 6.0V, with a typical gate current of 120mA, and on-state current of 8.0A. The on-state voltage drop of the device is 3.0V to 4.8V.

Conclusion:

The T1235T-8I TRIAC is a three-terminal AC switching device that is designed to control current in various applications such as power supply circuits, heating circuits, lighting circuits, heating elements, air conditioners, electric motors, appliance control circuits and battery chargers. It is easy to use, and its working principle is based on the principle of controlling the direction and magnitude of an electric current by triggering the semiconductor layers. The device has a gate trigger voltage of 6.0V, a typical gate current of 120mA and an on-state current of 8.0A.

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