2200HT-820-V

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Fixed inductors are electronic components made with conductive materials, usually of wire, providing the use of self-inductance within various circuit designs. The 2200HT-820-V is an example of a fixed inductor, made by the company Taiyo. Its self-inductance provides an array of uses within a variety of applications, and it works as a secondary element in any circuit design.

In terms of applications, the 2200HT-820-V can be used in DC-DC converters, switching regulators, motor drives, LCD adapter power supplies, and signal processing circuits. It is excellent in switching and dynamic applications because of its high efficiency, and it is capable of handling currents up to 1 ampere. The part values range from 0.47μH to 1.2μH, and operating temperature range from -25°C to +105°C.

The working principle behind a fixed inductor is based on Faraday\'s law of induction. According to Faraday\'s law of induction, when a current-carrying conductor is moved within a magnetic field, a voltage is generated across the conductor. Similarly, when an alternating magnetic field is moved around a coil, a voltage is generated at the coil terminals. This voltage is a combination of the self-induced voltage and the externally applied voltage.

In the case of the 2200HT-820-V, the self-induced voltage is generated with the coil winding in response to the magnetic field intensity. The field intensity is determined by the thickness of the wire and the number of turns in the coil winding. The operating conditions and the external voltage determine the voltage generated at the coil terminals. This voltage is used to create a current in the coil, which produces the inductance. The current flow at the terminals is generated as a result of a balance between the inductive reactance and the capacitive reactance of the coil winding.

Overall, the 2200HT-820-V fixed inductor is a great addition to any circuit design, and its use in DC-DC converters, switching regulators, motor drives, LCD adapter power supplies, and signal processing circuits makes it a very versatile component. Its wide range of part values and operating temperature make it practical in many different applications. Its working principle is based on Faraday\'s law of induction which states that an alternating magnetic field will generate a voltage across a coil, which is then used to create a current which produces the inductance.

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