CF453215-R56K

The CF453215-R56K is a type of fixed inductor, which is an electrical component that stores energy in a magnetic field. It is a passive component, meaning that it does not supply any voltage to the circuit. The inductor has a rated inductance value, which is the measure of the amount of magnetic flux created within the component when a current is applied. The CF453215-R56K’s inductance range is 0.180-0.210 mH.

Fixed inductors are used in a variety of electronic circuits. The CF453215-R56K is often used as a filter capacitor in power amplifiers, radio transmitters, and oscillator circuits. It is also used as an electromechanical component in motors and other electrical gadgets. It can also be found in the electronics of computers, cell phones, and other digital devices.

The CF453215-R56K is a commercial grade, metallized-polyethylene-naphthalate (MPE-N) fixed inductor. The MPE-N material is a blend of polymers and metals that is designed to provide electromagnetic shielding and thermal protection. The component has a molded case with vertical terminals and an oval shape, and it is pre-drilled for standard mounting. It is rated for temperatures ranging from -40° Celsius to +105° Celsius.

The inductor works on an easily understood principle. When a current is passed through the inductor, it creates a magnetic field. This magnetic field stores energy which is later released when the current is switched off. This “spike” of energy generated by the component is then used to perform a specific task in the circuit. The CF453215-R56K provides the exact same effect, but it has the additional benefit of having an MPE-N material blend to provide a more stable inductance compared to other inductors.

In summary, the CF453215-R56K is a type of fixed inductor. It is a commercial grade, metallized-polyethylene-naphthalate (MPE-N) component with a 0.180-0.210 mH inductance range and rated for temperatures ranging from -40° Celsius to +105° Celsius. It is often used as a filter capacitor in power amplifiers, radio transmitters, and oscillator circuits and it works on a very simple principle—when a current is passed through the inductor, a magnetic field is created which stores energy and is then released when the current is switched off.