ASPIAIG-F1265-120M-T

Fixed inductors are a type of component that are widely used in various applications due to their reliable performance and high frequency capabilities. The ASPIAIG-F1265-120M-T is a fixed inductor, specifically designed to work with high frequency circuits. This type of inductor is capable of handling up to 120 MHz, making it suitable for use in a range of applications.The ASPIAIG-F1265-120M-T is a self-supported fixed inductor with an inductance of 12.65 uH and a maximum DC current rating of 3 A. It has a tolerance of ±0.1 μH, making it suitable for applications requiring high precision. The footprint of the inductor is small, measuring just 12 mm in diameter and 17.6 mm in length. This allows it to be used in smaller, more compact circuit designs.When it comes to performance, the ASPIAIG-F1265-120M-T offers exceptional power handling capabilities. It has a temperature coefficient of 0.15%, low ESR of 0.0013 Ω and a high Q of up to 110. All of these specifications guarantee reliable performance in high frequency circuits.In terms of applications, the ASPIAIG-F1265-120M-T is ideal for use in cellular communication, automotive electronics and consumer electronics. It can also be used in other applications such as audio/visual, radio, and power management applications.Finally, let\'s take a look at the working principle of the inductor. At its core, the inductor works by exploiting Faraday\'s law of induction. Simply put, when a changing current passes through a coil of wire, an electromagnetic field is created, which induces a back EMF or voltage across the inductor. This back EMF opposes the current flow in the inductor, thus providing the desired inductance.To sum up, the ASPIAIG-F1265-120M-T is a self-supported fixed inductor that is suitable for high frequency circuits due to its high power handling capabilities, low temperature coefficient, low ESR and high Q. It is widely used in a range of applications such as cellular communication, automotive, consumer electronics and audio/visual applications. Finally, it works by exploiting Faraday\'s law of induction to achieve the desired inductance.