MIL2510-36K

Fixed Inductors

A fixed inductor is an electrical component that stores energy in the form of magnetic fields when current flows through its coils. Fixed inductors are used in many applications, including signal processing, power management, and control systems. The MIL2510-36K is a fixed inductor designed specifically for power applications, with a high efficiency and low heat output.

MIL2510-36K Application Fields

The MIL2510-36K is a fixed inductor that is ideal for use in power-critical applications. It is particularly suitable for high-current applications, such as power converters, switched mode power supplies, motor control, and any application needing high power density. It is designed to provide high efficiency, low dissipation, low EMI, and high power density.

The MIL2510-36K is a high-current inductor, with a rated current of 36A and a maximum current rating of 42A. Its\' power rating of 180 Watts makes it ideal for high-power applications, such as power components, DC/DC converters, DC/AC inverters, and motor control.

The MIL2510-36K is also ideal for automotive applications, such as electric car motor control, solar applications, power generation, and charging applications.

MIL2510-36K Working Principle

The MIL2510-36K is a fixed inductor that works according to the principles of electromagnetism. When current is passed through its coils, it stores energy in the form of a magnetic field. This magnetic field, in turn, induces an electric field, which produces an electric current. This second current is called an induced current.

The MIL2510-36K is designed to optimize efficiency by utilizing the principles of electromagnetic induction. By optimizing the design, it can minimize power losses associated with the inductor, resulting in greater efficiency. The MIL2510-36K also utilizes a high-efficiency flux joint coil construction to reduce EMI and improve performance.

The MIL2510-36K is designed to minimize power losses associated with the inductor. The coil construction is optimized to reduce power losses and increase efficiency. In addition, to reduce EMI, the coil is wound with a low-resistance material and designed to minimize magnetic interference.