FCN2820A274K

Film capacitors are increasingly becoming a popular choice in applications due to their cost efficiency and electrical performance capabilities. The FCN2820A274K film capacitor is a versatile and reliable option in the market, used for numerous applications. This article gives an overview of the features and areas of application for the FCN2820A274K capacitor, and outlines its working principle.

The FCN2820A274K capacitor is constructed with a polyester or polypropylene dielectric. The capacitor has a maximum rated capacitance of 0.27µF at 10.5 V. The capacitors feature very low equivalent series resistance, thus providing low-ESR performance. Additionally, its maximum dissipation factors (DF) and dielectric absorption ratios (DAR) are better than that of traditional electrolytic capacitors.

The FCN2820A274K film capacitor has an operating temperature range from -40°C to +105°C and high surge current ratings. This allows the capacitor to be used in a variety of applications such as filtering, decoupling and smoothing. It can be used in automotive, industrial, telecommunication and consumer electronics applications, as well as in power tools, motor drives and a variety of other fields.

The working principle of the FCN2820A274K film capacitor is simple. By applying a voltage across its terminals, electrical energy is stored in the capacitor. This stored energy is then released in the form of electrical current when the voltage is removed. Due to the high capacitance of the FCN2820A274K, it can store more energy than other types of capacitors. The capacitor also features low ESR, meaning that it can quickly discharge the energy stored.

In conclusion, the FCN2820A274K is a reliable and cost-effective option for a wide range of applications. Its wide temperature range and high surge current ratings make it a robust choice for different fields. Additionally, its low ESR ensures that it can quickly discharge the stored energy. As a result, the FCN2820A274K is a valuable capacitor for a diverse range of applications.