KP1836133134W

Film Capacitors: KP1836133134W application field and working principle

Film capacitors are widely used in many fields. The KP1836133134W is a film capacitor product. It has a wide application field and a simple working principle. The main purpose of this article is to introduce its application field and working principle.

First of all, the KP1836133134W film capacitor is mainly used in AC and pulse circuits. This product is usually made of thin dielectrics, such as polyimide and polypropylene. Its outer layer is a metal plate. Due to its small size, simple structure, and stable performance, it is one of the most widely used film capacitors.

The working principle of KP1836133134W film capacitor is based on the electrical field produced by two parallel electrodes between which there is an insulating medium. When a voltage is applied to the electrodes, an electric field is created between them. This electric field creates a static electric field between the two electrodes. This electric field can store energy, and this stored energy is the electrical charge stored in the capacitor.

When a voltage is applied to the capacitor, a certain amount of current will flow through the capacitor. This current creates a magnetic field that is concentrated around the two electrodes, and thus the electric field between the two electrodes is increased. This increased field creates a higher capacitance, and so the capacitor can store more energy than before.

Finally, when the voltage is removed, the electric field between the two electrodes decreases, and the stored energy is released. This released energy is in the form of electric current. This current can then be used to power a variety of electrical and electronic systems.

In conclusion, KP1836133134W film capacitors have a wide application field and a simple working principle that makes them highly reliable. They are used in AC and pulse circuits for their small size, simple structure, and stable performance. They can store energy in the form of an electric field between two parallel electrodes. And when a voltage is applied to the electrodes, a magnetic field is created that increases the capacitance. Finally, when the voltage is removed, the stored energy is released in the form of electric current.