NS12565T2R0NN Inductors, Coils, Chokes

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Fixed inductors are electrical circuit components used to store energy in the form of electric currents. The inductor is a passive component that works through the induction of an electromagnetic field to resist any changes in the applied voltage. Fixed inductors are essential components of a variety of electrical and electronic systems due to their ability to provide a constant voltage and current flow over an extended period of time. The NS12565T2R0NN application field and working principle, can be classified as a fixed inductor, as it stores energy and creates a steady electric current.

The NS12565T2R0NN is a high-performance, low-inductance, high-current single layer copper based wire wound power inductor, featuring a low profile and a zinc-plated steel case with an aluminium tape seal. The inductor is ideal for use in power circuits, DC/DC converters, and power supply circuits. It has a low current tolerance of 1% and a maximum operating temperature of 125° C. The inductor features a nominal inductance of 0.125 μH, and a DC resistance of 0.003 ohm.

The inductor\'s working principle is the result of two major effects: self-inductance and mutual inductance. Self-inductance is the opposition to a change in current that is generated within the inductor itself – typically referred to as the "L" in an electrical circuit. Mutual inductance refers to the opposition to a change in current that is generated when an electric field cuts across the inductor. This effect is generated when two inductors are placed close to one another. The magnitude of the effect is dependent on the relative size and orientation of the two inductors.

The NS12565T2R0NN fixed inductor works based on self-inductance and mutual inductance. The inductor consists of a coil of copper wire wrapped around a core, often ferrite or air-core. When electricity flows through the coil, a magnetic field is generated around the core, and this field opposes any changes in the applied voltage. As a result, the inductor is able to maintain a steady self-induced voltage across the inductor, as well as a steady current through the inductor. This makes the inductor ideally suited for use in power circuits and power supply systems, where a steady electric current must be maintained for extended periods of time.

The NS12565T2R0NN application field and working principle can be considered an example of how fixed inductors work in general. Fixed inductors are essential components of power circuits and power supply systems, as they allow for steady current and voltage flow over an extended period of time. As the technology advances, more efficient and more powerful inductors are constantly being developed and adapted for a variety of applications.

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