IMS02BH2R7K

Fixed inductors are electrical components used in a wide range of applications. The IMS02BH2R7K, manufactured by Vishay Intertechnology, is such an inductor that is ideal for both commercial and professional applications. It consists of a ferrite core material wired with enameled copper wire and has a rated inductance of 2.7 mH and a current rating of 105 mA.

IMS02BH2R7K is available in three different packages, the 0805, 1210, and 1812 sizes, and can provide up to 96% power efficiency. As such it is suitable for use in many applications, ranging from RF circuits to power conversion circuits. It is also capable of operation up to 100kHz and has a maximum working temperature of 185℃.

The working principle of this inductor is very similar to that of the other fixed inductors. When an alternating current passes through it, a magnetic field is generated in and around the inductor. This magnetic field will induce an electromotive force in the proximal wire, which in turn generates a counter electromotive force in the inductor. This process continues as long as an alternating current is applied, generating a resistance against the varying current, which then transforms the AC current into a DC current.

IMS02BH2R7K is suitable for use in wideband filter designs, high frequency resonators, and charge pump circuits, as well as many other professional and commercial applications. Its high power efficiency, wide frequency range, and superior temperature ratings, make it ideal for use in a wide variety of high-power and high-frequency scenarios.

In summary, the IMS02BH2R7K is an ideal choice for fixed inductor applications. With its high-power efficiency, wide frequency range, and superior temperature ratings, this component is the perfect solution for a variety of professional and commercial applications. With its affordable price tag and wide variety of sizes and packages, this component is perfect for any project. Finally, its working principle is that of all fixed inductors, as its magnetic field induced current, generates a resistance against the current, which in turn generates a DC voltage output.