IM02ER100K

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Fixed inductors are a type of passive electronic component which are used to store electrical energy in the form of a magnetic field. The component consists of a coil of insulated wire, wound around a core of iron or other materials, and typically have two or more terminals. Depending on the application, fixed inductors may be made in a range of sizes and tolerances, and from different materials.

IM02ER100K is an example of a fixed inductor that is utilized in electronic circuitry. This inductor is manufactured by the company Murata, and is ideally used in high frequency applications that require a low Q factor. Its construction is composed of a litz wire encased in a ferrite core, allowing for a higher current capacity than an inductor of the same size constructed using a wire-wound core.

Because IM02ER100K inductors are designed for high frequency applications, they are much smaller than regular inductors and have a higher self-resonance frequency. This makes them well suited for applications involving high-speed data transmission such as fiber optical communications, microwave transmitters/receivers, amplifiers, and radio frequency systems. Additionally, they can be used in switching mode power supplies, frequency-selective networks, memory in digital systems, and voltage-controlled oscillators.

The working principle of the IM02ER100K fixed inductor is based on Faraday’s Law of Induction. This law states that when a flow of current through a conductor creates a changing magnetic field, this field will induce a voltage in a second conductor. As current passes through the IM02ER100K inductor, a magnetic field is generated, storing energy as a result. When the current is reduced or removed, the magnetic field begins to collapse, inducing a voltage back into the circuit.

Murata’s IM02ER100K fixed inductors are easy to use and inexpensive components that can be used to improve the performance and efficiency of electronic systems. With their high self-resonance frequency, they can be used in a range of high-speed applications that require low Q factors, making them ideal for use in telecommunication, RF circuit, and high-frequency analog systems.

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