1025R-96K

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Fixed inductors are passive components that are designed to deliver a constant amount of inductance over a wide range of frequencies. 1025R-96K inductors have been designed to provide a wide range of inductance from around 0.5 uH up to 80 uH. These components are used in many applications, from wireless communication to power management systems.

Application Field
1. Wireless communication
2. Power management systems
3. Battery charging applications
4. Transmission and reception systems
5. Logic circuits
6. EMI shielding
7. Interference filters

The 1025R-96K inductor has been developed to provide a wide range of inductances over a wide range of frequencies. These components can be used in both high-frequency and low-frequency applications. The inductance provided by these components is determined by the number of turns of wire used in the winding process. The higher the number of turns, the higher the inductance provided. The operating temperature range of the component is between -55°C and 125°C.

Working Principle

The working principle of the 1025R-96K Inductors is based on Faraday’s Law of Electromagnetic Induction. The inductor stores energy in its coil when an alternating current passes through it. This stored energy is then released when the current changes direction. The amount of stored energy is determined by the number of turns of wire on the coil and the frequency of the alternating current. The higher the frequency of the current, the higher the amount of stored energy. When the current changes direction, the stored energy is released and an induced voltage is generated across the inductor. This induced voltage is used to create the required inductance.

The 1025R-96K Inductors are designed to provide a wide range of inductance over a wide range of frequencies, making them suitable for use in many different applications. The inductance provided by these components is determined by the number of turns of wire on the coil and the frequency of the alternating current. The higher the number of turns, the higher the inductance provided.

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