ASPIAIG-F4020-1R2M-T

Due to market price fluctuations, if you need to purchase or consult the price. You can contact us or emial to us:   sales@allicdata.com

Fixed inductors, commonly known as inductors, have specialized applications in numerous fields such as power applications, signal processing, DC/DC converters, and EMI suppression. Inductors are core components in a variety of engineering solutions. The inductor works by storing energy in the form of a magnetic field and releasing the energy when needed. The ASPIAIG-F4020-1R2M-T is one such fixed inductor. It is a high performance radial-style device that is used for DC-DC and telecom applications. This article discusses the application fields and working principles of the ASPIAIG-F4020-1R2M-T inductor.

The ASPIAIG-F4020-1R2M-T inductor is ideal for use in DC/DC converters, telecom circuits, and power supplies. It is designed to operate over a temperature range of -40 to +125 degrees Celsius, making it suitable for a wide range of applications. The inductor has a very low profile, making it suitable for use in high-density applications such as telecom applications and surface mount PCBs. It also features a high operating frequency range, making it suitable for use in high speed applications.

The ASPIAIG-F4020-1R2M-T features two series of cores, namely the ferrite core and the iron powder core. The ferrite core is designed to reduce the AC ripple current and is good for high frequency rectifier applications. The iron powder core is designed to reduce the inductance drop at high frequencies and is suitable for low frequency applications. The inductor also features an internal shield, which reduces EMI noise and improves the signal integrity. The internal shield also serves to protect the PCB from the intense heat of the inductor.

The working principle of the ASPIAIG-F4020-1R2M-T inductor is based on Faraday\'s law of induction. According to this law, a voltage is induced in an inductor whenever there is a change in the flux, which is the rate of change of the magnetic field across it. When a direct current is passed through the inductor, the flux linking the inductor increases. The induced voltage opposes the current that generates it. This phenomenon is known as self-inductance.

The inductor also operates on a frequency-dependent basis. Inductors are designed to have a specific resonance frequency. At this frequency, the reactance of the inductor is minimized. The impedance of the inductor at this frequency is also minimized and the maximum power transfer occurs.

In summary, the ASPIAIG-F4020-1R2M-T is a fixed inductor suitable for a wide range of applications, including DC/DC converters, telecom circuits, and power supplies. It features a ferrite and iron powder core, an internal shield, and operates based on Faraday\'s law of induction and the frequency-dependent principle. The inductor is designed to work over a wide temperature range and it is able to provide high power transfer at its resonant frequency.

The specific data is subject to PDF, and the above content is for reference