Through Hole Resistors

Through hole resistors, also known as through hole fixed resistors, provide an electronic component used for providing a fixed electrical resistance within an electrical circuit. They are widely used in many applications, from simple audio circuits for providing a basic resistance to more advanced applications in circuit designs to produce adjustable voltages, temperature compensation, or reduce noise. By providing a constant and reliable resistance, through hole resistors allow a designer to create an effective and reliable circuit with minimal disruption.

A CMF7025R000FKEB resistor is a through hole resistor with a Metal Oxide Film resistor construction, and a rated working power rating of 0.125 watts (1/8th Watt). This resistor is designed for applications in which accurate resistors are used with relatively low power levels- specifically, electronic circuits in which a signal or voltage is applied to an electronic component to produce a defined output current. This resistor is well-suited for precision audio circuits, low-power circuitry, and voltage-regulator circuits.

The CMF7025R000FKEB features a metal film resistor construction and has a relative tolerance of +/- 0.005. This resistor\'s wide range of values allows it to be applied in precision amplifier stages, sample-and-hold circuits, audio preamp stages, high-stability oscillators, and other applications which require a low-noise and accurate output.

Application Field

The CMF7025R000FKEB is a general purpose through-hole resistor designed for use in audio, industrial, and automotive applications. Its low wattage rating makes it ideal for low-power signal circuits, as it is designed to dissipate heat quickly. It is also suitable for high-stability analog circuits, as it has a high degree of precision even at low power levels. Additionally, this resistor provides excellent noise reduction capabilities, making it suitable for noise reduction applications and for use in S-H noise cancellations.

It can also be used in TV and monitor circuits, as it is constructed with a robust design that is capable of withstanding voltage and temperature extremes. The CMF7025R000FKEB\'s high tolerance of +/- 0.005 ensures a high degree of noise reduction and precision even in applications where power levels are low. Finally, this resistor has a wide range of values, allowing a designer to easily adjust the voltage or current of an output signal.

Working Principle

The CMF7025R000FKEB works by providing a constant and reliable resistance to an electrical circuit. When a voltage is applied to the resistor, a proportionate amount of current passes through the resistor depending on the resistance it provides. This allows a designer to manipulate the voltage or current of an output signal, as the resistor can be used to adjust the power levels in a circuit. Additionally, this characteristic of resistors also allows them to be used as feedback elements, which can reduce noise in a system by attenuating certain frequencies.

The CMF7025R000FKEB is designed to provide reliable and accurate resistance even at low-power levels and a wide range of values. This allows a designer to precisely control the output voltage or current of an electronic component without having to worry about the circuit being overwhelmed with power due to a resistor with too high of a resistance or not enough power due to a resistor with too low of a resistance.

Furthermore, this resistor also provides excellent noise reduction capabilities, making it suitable for use in applications that require a low-noise and accurate output. Its metal film construction ensures a high degree of accuracy and robustness even when used in a wide range of temperatures and voltages, ensuring reliable performance in any circuit design.

The CMF7025R000FKEB is an ideal choice for any circuit that requires high accuracy and low power levels. Its metal film construction ensures reliable performance, and its wide range of values allow a designer to make precise adjustments to its output voltage or current with minimal disruption.