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30pcs IRFZ44N 49A 55V Three-Pin Rectifier IRFZ44NPBF N-Channel MOSFET Transistor TO-220AB Package

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$10.99

$ 5 .99 $5.99

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About this item

  • This product is an N-channel MOSFET with low on-resistance that provides higher efficiency and less power loss in high-current applications
  • The product has a fast switching speed, which allows it to provide better performance in high-frequency applications
  • The product is housed in a TO-220AB package, which has good heat dissipation and high temperature tolerance, allowing it to be used in harsh environmental conditions
  • It is suitable for high-power switching applications such as DC-DC converters, motor drives, UPS, and power management
  • The maximum drain current of this product is 49A, the maximum drain voltage is 55V, and the maximum power loss is 94W


Product name: IRFZ44N N-channel transistor

Specifications:

Size: 30mm*10mm/1.18in*0.39in

Maximum drain current: 49A

Maximum drain voltage: 55V

Maximum power loss: 94W

On-resistance: 17mΩ

Switching time: 24ns

Package type: TO-220AB

How it works: When the gate voltage is positive, a PN junction is formed between the n-type silicon layer and the gate, and the current cannot flow through. When the gate voltage is negative, the electric field between the gate and the n-type silicon layer causes the electrons on the n-type silicon layer to move closer to the gate, forming a conduction channel through which current can flow. At the same time, the positive electrode is connected to the source electrode, and the negative electrode is connected to the drain electrode, so that the current can enter the conduction channel from the source electrode and flow to the drain electrode. When the gate voltage is 0, the MOSFET is in a cut-off state and current cannot flow through.

Procedures for operating IRFZ44NPBF transistors include:

Avoid exceeding the maximum drain current, maximum drain voltage and maximum power loss;

Use an appropriate heat sink to ensure that the transistor does not overheat;

Avoid static electricity and mechanical damage, and avoid bending or scratching the pins;

Pay attention to the connection of the positive and negative poles, and avoid short circuit or reverse connection;

Select the appropriate control strategy and circuit topology according to the application scenario.