B78148S1184J000

Fixed Inductors: B78148S1184J000 application field and working principle

Fixed inductors are types of passive electronic components that convert electrical energy into magnetic energy or vice versa. They are used in many electronic circuits to limit current and voltage, and to create necessary delays. The B78148S1184J000 belongs to the family of fixed inductors. This article will explain the application fields and working principle of the B78148S1184J000.

The B78148S1184J000 is a high-performance fixed inductor that operates in a wide temperature range with a very low self-inductance. It can be used in a variety of applications such as power converters, switching power supplies, audio and video equipment, and other high-density electronic devices. It is also suitable for high-temperature applications such as medical machines, automotive electronics, and aerospace applications.

The B78148S1184J000 is a compact, cylindrical device that features an integrated ferrite core and copper winding with an operating frequency range of 10 kHz to 10 GHz. It operates at a temperature range of -40°C to +105°C and provides a high saturation magnetic flux density of up to 1.4 teslas. The device can handle a maximum reverse voltage of up to 20 V and a maximum current rating up to 3 A.

The working principle for the B78148S1184J000 fixed inductor can be summarized as follows: when the current flowing through the inductor increases, the voltage across it increases accordingly. The change in the magnetic field is due to the flux linkage, which is the product of the current and the number of turns in the inductor. The stronger the magnetic field, the higher the inductance. This phenomenon is known as electromagnetic induction, which plays an important role in many applications.

In conclusion, the B78148S1184J000 fixed inductor is a high-performance device that can be used in many applications. It has a low self-inductance, a wide temperature range, and a high saturation magnetic flux density. It operates by applying the principle of electromagnetic induction, wherein the inductor\'s magnetic field changes according to current flowing through it.