CIGW252010GM1R0MNE

Fixed inductors, or linear inductors, are widely adopted in power electronic applications, ranging from switching power supplies, motor drive systems, solar inverters, and alternative energy sources to other high-frequency electronic devices. CIGW252010GM1R0MNE is from super ferrite material family that is ideal for switching power electronics, especially in high- frequency voltage to current step down operations needed by high efficiency and low energy consumption applications.

This series of CIGW252010GM1R0MNE fixed inductors are characterized by low DC resistance RDC and high current rating up to Micro Henry per ampere. The primary structure of CIGW252010GM1R0MNE is wire wound on a ferrite core winding, with 10 connections for easy circuit insertion. This inductor core can operate at temperatures up to 150 degrees Celsius. In addition, CIGW252010GM1R0MNE inductors also feature high frequency power losses, good temperature stability, and low-profile size with a typical effect of 0.40 x 0.30 mm.

The CIGW252010GM1R0MNE fixed inductor is a semiconductor device consisting of a wire winding along with a ferrite core winding. This allows for improved current capability and higher magnetic saturation value. This inductor is mainly used in applications requiring high current level and low losses, such as switching power supplies, motor drive systems, solar inverters, and other high-frequency electronic devices. It can be used to step down or increase voltage in circuits, filter out undesired noise, and reduce electromagnetic Interference (EMI).

The core component of CIGW252010GM1R0MNE inductor is ferrite, an oxide made out of iron powder. Ferrite is composed of various materials, such as Mn, Ni, Fe, and Cu. The basic structure of ferrite includes several nano-sized cores which can be either ferrite or nanomagnets. The nanomagnets provide the necessary magnetic field for the energy transferring process. Nanomagnets also give the inductor core better performance in terms of capacity and current. They also provide good electrical and thermal insulation to protect the inductor.

The working principle of CIGW252010GM1R0MNE inductor is based on Faraday’s law of induction. When a voltage is applied across the inductor, an electric current is induced on the winding which produces a magnetic flux in the core. This magnetic flux varies inversely with the applied voltage, creating an inductive reactance that opposes the applied voltage. The inductor therefore holds the voltage below the peak and keeps it constant. The current flowing through the inductor is proportional to the applied voltage. The rate of change of current through the inductor is proportional to its inductance.

CIGW252010GM1R0MNE fixed inductors are suitably designed for applications that require high current ratings. This type of inductor is often utilized in switching power supplies, motor drive systems, solar inverters, and other high-frequency electronic devices. It also prevents electrical noise from entering or from exiting the system, therefore reducing interference from the outside. CIGW252010GM1R0MNE inductors provide an efficient and reliable way to manage voltage and reduce electrical noise.

In conclusion, CIGW252010GM1R0MNE fixed inductor is an excellent choice for many high-frequency switching power electronics applications. It features high current rating and low DC resistance, as well as good temperature stability and an impressive small size. This inductor can also effectively filter out any undesired noise and EMI. Through its operation based on Faraday’s law of induction, CIGW252010GM1R0MNE can effectively step down and increase voltage in circuits, protecting the system from any electrical interference.