STF2N95K5

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The STF2N95K5 is a type of field-effect transistor (FET) that belongs to the family of MOSFETs (metal-oxide-semiconductor FETs). This particular FET is a single MOSFET, meaning there is only one channel that is either on or off. The STF2N95K5 FET is a N-channel enhancement type MOSFET, which means that the transistor is in an off-state when there is no voltage applied to the gate.

The STF2N95K5 has a wide range of uses, due to its high current capacity, low on-resistance, and its ease of use. The FET is primarily used in power supply circuits and power amplifier circuits. It is especially useful in applications such as lighting control or motor control, where power supply needs to be efficiently regulated. The FET is quite versatile and can be used for a variety of tasks, such as transmitter switching, LED/LCD display control, and sound frequency adjustment.

When designing with FETs, it is important to be aware of the FETs working principle. The STF2N95K5 is an N-channel enhancement type FET, so it is off until a sufficient voltage is applied to the gate. This type of FET functions by polarizing the electrical charge between the source and the drain. When a voltage is applied to the gate, it induces an electric field which modifies the electrical resistance of the channel. This change in resistance is what allows the FET to operate as a switch, turning the flow of current on and off.

When working with the STF2N95K5, it is important to note that the device can handle a maximum drain-source voltage (VDS) of 200 volts. The FET can also withstand 12 ampereId, so it is important to make sure that the power supply is able to handle the current draw. The maximum power dissipation of the FET is 30 watts, so it is important to ensure that the power supply is able to provide the current draw without causing the FET to overheat.

The STF2N95K5 is a powerful and versatile FET, making it well suited for a variety of applications. It is important to be aware of its working principle, as well as its maximum voltage, current draw, and power dissipation. By understanding how the FET works and how much power the device can handle, designers can design with confidence and get the most out of their designs.

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