SCRH5D18-5R4

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Fixed inductors are electrical components that store energy in the form of magnetic fields. The SCRH5D18-5R4 is a type of fixed inductor specifically designed for telecom power system applications. This type of inductor can withstand wide range of application operating conditions and offers superior noise immunity. It features excellent current carrying capacity, low power losses and high-speed switching ability making it ideal for filtering and resonance applications.

The SCRH5D18-5R4 has a rated temperature range of -40°C to +105°C, and encompasses a wide range of frequencies. It is equipped with a square core, which features a high-efficiency magnetic core that reduces power losses and increases power density. The inductor\'s core also has a slanted edge design for improved strength capacity and less stress in high-temperature applications. The inductor also features a planar construction design and an integrated wire-driven system that improves its performance in space-limited applications.

When it comes to working principles, the SCRH5D18-5R4 operates by creating a magnetic flux in an electrical circuit. This is done by inducing electric current through one winding in the inductor. The current passing through the winding produces a magnetic field which surrounds the inductor while the current continues to flow. The magnetic field then interacts with other surrounding magnetic fields, generating a force within the inductor. This force causes the inductor to oppose any further flow of current while it is charging. Once the inductor has reached it maximum charge and the current is shut off, the stored energy is released back into the circuit.

In summary, the SCRH5D18-5R4 is a type of fixed inductor ideal for telecom power system applications. It has a square core, and excellent current carrying capacity, low power losses and high-speed switching ability. It works by inducing electric current through one winding in the inductor, which creates a magnetic field that interacts to create a force within the inductor. This force causes the inductor to oppose any further flow of current while it is charging, and when the current is shut off, the stored energy is released back into the circuit.

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