BFC238341753

Due to market price fluctuations, if you need to purchase or consult the price. You can contact us or emial to us:   sales@allicdata.com

Film capacitors, an electronic component consisting of two metallic electrodes with a dielectric film between them, are an important class of electronic components used in power electronics. The BFC238341753 is a film capacitor with numerous applications in various energy systems including power transmission and power distribution networks. This paper discusses the application fields and working principle of the BFC238341753 film capacitor.

Application Fields

The BFC238341753 film capacitor is mainly used for its ability to handle high voltage, high frequency, and high current fluctuations, making it suitable for many power electronics systems. It is primarily utilized in power systems where high-frequency noise interference exists, such as narrow-band PLC data communications systems, heterodyne frequency converters, nonlinear power supply systems, AC/DC rectifiers, motor controllers, and thyristor inverters. It is also used in a range of other applications, including medical equipment, monitoring and control systems, power plants, and power supplies.

The BFC238341753 has superior characteristics compared to other film capacitors, including low ESR (equivalent series resistance) and higher capacitance values. This makes it ideal for applications that require high-power output, high-frequency pulse input, and low-noise environment. It also minimizes the time for power-up and power-down (as defined by the energy saving principle of power electronic circuits). Moreover, the film capacitor exhibits high efficiency and a low temperature coefficient which leads to reduced heating of the components in power systems.

The BFC238341753 is also suitable for use in damp and humidity environments due to its low self-heating capacity, good insulation resistance, and high flash over voltage. It also offers a number of performance advantages in stabilizing voltage, providing a larger capacitance at a lower capacitance, and providing a longer life even when operating at high temperatures.

Working Principle

The BFC238341753 film capacitor is essentially an oscillatory capacitor, meaning that it functions by creating electrical fields between metal plates and a dielectric film layer. This film layer forms a dielectric barrier between the two plates, creating an electrical field of stored energy. When alternating electrical current is applied to the plates, an oscillating electrical field is created, resulting in a fluctuation of energy in the form of electronic pulses.

The capacitor is connected to a power source such as a battery or an electrical panel. When a voltage is applied to the terminals, electric pulses are created which store and regulate the electric current. These pulses are constant and uniform, meaning that the current flowing through is regulated and stabilized. This ensures that the output voltage is stable and constant, resulting in better performance and protection.

The capacitance of the BFC238341753 film capacitor is greater than standard capacitors as the dielectric film can more efficiently store electrical energy. This increased capacitance also leads to a higher flash-over voltage, which prevents voltage spikes and protects against electrical shock. The dielectric film also adds to the longevity of the capacitor, as it maintains a low internal resistance over long periods of time.

Conclusion

The BFC238341753 film capacitor is a versatile component that is suitable for a wide range of applications in power electronics. It offers superior performance and protection compared to other film capacitors, so it is an ideal choice for high-power, high-frequency, low-noise electronics. It is also well-suited for damp and humidity environments due to its low self-heating capacity, insulation resistance, and high flash-over voltage. Overall, the BFC238341753 is an excellent choice for applications that require reliable and efficient power delivery.

The specific data is subject to PDF, and the above content is for reference