IHB1BV3R9M

Fixed inductors are electronic components used in electrical circuits to provide a known amount of inductance. The purpose of incorporating an inductor in an electrical circuit, also known as an inductor coil, is to oppose changes in current flow. An inductor stores energy in the form of a magnetic field that is created by the passing current. As the current decreases, the stored energy is returned into the circuit, helping to maintain the current.

The IHB1BV3R9M is an example of a fixed inductor and is part of the IHB1B series from TTI. This component has a rated maximum frequency of 11 Mhz and a rated impedance of 120 mΩ. It is a molded, axial-leaded, two-wire component with a maximum capacitance of 85 pF. It is UL 94V-0 compliant and can be used in a variety of applications, such as cellular and cordless phone, high-speed signal processing, and audio/video equipment.

In terms of its working principle, the IHB1BV3R9M operates by creating a magnetic field in response to the electrons flowing through its winding. The magnetic field then acts as a core for the inductor, storing energy and creating a back-emf when the current through the inductor changes. This back-emf opposes any changes in current, helping to maintain a stable voltage across the inductor.

The IHB1BV3R9M is a fixed inductor, meaning that the amount of inductance is predetermined and does not vary with the external environment. This is made possible by having the precise number of turns of wire and a suitable core material to give the desired inductance. This is an important consideration when designing circuits, as the inductance dictates how the circuit will react to a change in current. Selecting the correct inductor can ensure that the desired performance is achieved.

In summary, the IHB1BV3R9M fixed inductor is a highly reliable component, suitable for many applications. Its working principle is based on passing an electric current through its winding in order to create a magnetic field which then helps to maintain a consistent voltage across the inductor. It is an important choice for many electrical circuits where stability and precision are a critical consideration.