PME271M633KR30 CAP FILM 0.33UF 10% 275VAC

The PME271M633KR30 is a high-quality metallized paper capacitor designed for reliable operation in demanding AC applications. With a capacitance of 0.33uF (microfarads) and a tolerance of 10%, this capacitor provides stable and consistent performance. It is rated for 275VAC (Volts Alternating Current), making it suitable for use in mains-connected circuits and other high-voltage AC applications. This capacitor is specifically designed to withstand high voltage stress and provide excellent pulse handling capabilities. Its metallized paper construction ensures high insulation resistance and low dissipation factor, contributing to its overall reliability and longevity. The PME271M633KR30 is commonly used in EMI (Electromagnetic Interference) suppression, across-the-line filtering, and other applications where reliable AC performance is critical.

Its self-healing properties allow it to withstand transient voltage spikes without permanent degradation, further enhancing its reliability. The robust construction of this capacitor makes it suitable for use in harsh environments, where it can withstand vibration, humidity, and temperature variations. Its flame-retardant coating provides added safety in case of overload or failure. The PME271M633KR30 is a dependable choice for a wide range of AC applications, including power supplies, motor controls, lighting ballasts, and industrial equipment. Its high voltage rating, stable capacitance, and robust construction make it a versatile solution for demanding circuit designs. Whether you're designing a high-performance power supply or a reliable EMI filter, the PME271M633KR30 offers the performance and reliability you need.

Its self-healing properties and flame-retardant coating provide added safety and peace of mind. Upgrade your AC circuits with the PME271M633KR30 CAP FILM 0.33UF 10% 275VAC today and experience enhanced reliability, performance, and safety. Don't compromise on quality – order now and ensure your circuits operate at their peak potential.