ELJ-FB102KF

Fixed inductors are a type of electronic component used in several types of electrical circuits. They are mainly used to store energy in the form of a magnetic field, a current, or voltage. They are typically found in filter circuits, timing circuits, and power supplies. The ELJ-FB102KF is a type of fixed inductor that is widely used in various applications. This article will provide an overview of the ELJ-FB102KF\'s application field and working principle.

The ELJ-FB102KF is designed to be used in high-frequency applications. As such, it is usually found in radio frequency (RF) and microwave circuits. It is a component that is often used in antennas, resonators, and filter networks. Its frequency range is between 10 kHz and 2.5 GHz, allowing for high frequency circuits. Its high stability and low insertion loss make it suitable for use in both analog and digital applications.

The ELJ-FB102KF also has a frequency selection ratio of 1:1, meaning that it has a predictable output regardless of the applied frequency. This makes it ideal for use in communication systems, where a consistent output is necessary for efficient operations. It also has a low equivalent series resistance (ESR), and a high self-resonant frequency for maximum efficiency. Moreover, the component can handle voltages of up to 200 volts, which ensures it can be used in a wide range of applications.

In terms of its working principle, the ELJ-FB102KF operates in a fairly simple manner. Firstly, the component has two terminals, a start and end terminal. When current is applied to the start terminal, it causes a magnetic field to be created in the coil of the inductor. This magnetic field induces a voltage across the component which is then transferred through the end terminal. Thus, the inductor is effectively transforming the current from the start terminal into voltage on the end terminal, converting an AC signal from one form to another.

In summary, the ELJ-FB102KF is a versatile component that is widely used in a variety of high frequency applications such as antennas, resonators, and filter networks. Its operating range, voltage handling capacity, high stability, and low insertion loss all make it a desirable component for many electronic devices. Its working principle is also relatively simple as it transforms a current applied at the start terminal into an induced voltage at the end terminal.