MBMK2520H3R3M

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Fixed inductors, also called coils or chokes, are the most fundamental type of inductors, consisting of two or more windings of insulated wire wound around a core material. MBMK2520H3R3M is a fixed inductor, and has been widely used in various applications due to its many advantages over other types of inductors. This article will explain the application fields and working principle of MBMK2520H3R3M.

Applications of MBMK2520H3R3M

MBMK2520H3R3M can be used in a variety of applications. Its operating frequency range is from 1MHz to 5MHz, making it suitable for applications in communication, sensing, switching, delivery and processing systems as well as in motor control and automotive electronics. It can also be used in DC-DC converters, power supplies, switch mode power supplies, as well as various other power application fields.

MBMK2520H3R3M is suitable for applications which require high-temperature and high-voltage endurance. It can withstand temperatures up to 125°C while its peak current rating can reach 9.0A. The inductance value of the MBMK2520H3R3M is minimized, so it is best suited for applications which require a low inductance value. It is also RoHS compliant, making it suitable for both industrial and consumer applications.

MBMK2520H3R3M Working Principle

MBMK2520H3R3M uses the principle of magnetic induction. The inductor consists of two or more coils, with one coil called the primary coil and the other coil called the secondary coil. In an inductor, electrons passing through one coil are attracted to the other coil and generate a magnetic field.

The strength of the magnetic field generated depends on the number of turns in the coils, the current through the coil, and the properties of the core material. The generated magnetic field then causes a voltage to be induced in the secondary coil. This induced voltage opposes the applied voltage, causing a drop in current.

The inductance value of the inductor determines the magnitude of the current drop. The greater the inductance value, the more voltage will be induced in the secondary coil, and the greater the drop in current. The inductance value of an inductor is also affected by the properties of the core material, the number of turns in the coils, and the size of the coils.

Conclusion

The MBMK2520H3R3M fixed inductor has a wide range of applications and a low inductance value, making it suitable for a variety of applications. The inductor uses the principle of magnetic induction, where a magnetic field is generated in the inductor due to the movement of electrons, causing an induced voltage to be generated in the secondary coil. This induces a drop in current through the inductor, resulting in the inductor’s inductance value.

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