SLF7032T-102MR13-2PF

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Fixed inductors are electrical components consisting of wire windings and a core that store energy in the form of a magnetic field. They have been around for many decades and are used in a wide variety of applications, ranging from power supplies to industrial automation. One type of fixed inductor, the SLF7032T-102MR13-2PF, is designed to be used in medium and high power applications.

The SLF7032T-102MR13-2PF is a surface mount, air-core inductor. It is a ceramic core with an inductance of 102µH, a maximum current rating of 15.2A, and a self-resonant frequency of 8.8MHz. The operating temperature range is -55°C to +125°C.

The SLF7032T-102MR13-2PF is designed primarily for use in DC/DC converters, power supplies, and switch converters. It is commonly used in switching power supplies, such as those used to power servers, graphics cards, and other high-powered components. It can also be used in high-temperature applications, due to its robustness and operating temperature range.

When designing with the SLF7032T-102MR13-2PF, it is important to consider the parasitic elements that are introduced by the winding. These parasitic elements can cause losses in the circuit, leading to increased power consumption and decreased efficiency. To reduce losses, it is important to select the proper size of the inductor and to use an optimization technique to reduce the current ripple in the circuit.

In addition to its use in power supplies and switch converters, the SLF7032T-102MR13-2PF can be used in signal applications as well. It can be used for filtering, coupling, decoupling, and impedance matching, and is also useful as a noise suppression element. By selecting the proper size and optimization technique, it is possible to reduce noise in the circuit and improve signal integrity.

The SLF7032T-102MR13-2PF is an effective and versatile fixed inductor, and can be used for a wide range of applications. It is important to consider the parasitic elements when designing with this component, as they can cause significant losses in the circuit, and can lead to decreased efficiency and increased power consumption. By selecting the proper size and optimization techniques, it is possible to reduce losses and improve the performance of the circuit.

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