SFABL5000680MC0

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

Feed Through Capacitors refer to devices that are used to enable the passage of electrical signals between two media while blocking DC current. The SFABL5000680MC0 is a feed through capacitor that is designed for high-powered applications like medical and telecommunications systems where both low and high frequency noise must be filtered out from signals. This capacitor is designed to provide superior performance in high-power applications due to its high current rating and wide temperature range. It also features a very low ESR rating, which ensures clean and reliable power to sensitive electronics.

The SFABL5000680MC0’s application field includes fields where high power and protection against high-frequency noise is required. Typical fields of application include telecommunications, medical, aerospace and industrial applications. The capacitor is also suitable for use in many consumer electronic devices, such as computers, televisions, radios, amplifiers, and other audio or video products.

The working principle of the SFABL5000680MC0 is based on the fact that a capacitor has an oppositely-charged pair of plates on either side of an insulating material. When a signal is passed through the plates, the charge accumulates on one plate, creating an electrical field. This field has the effect of blocking low-frequency signals. By creating a higher frequency signal, the capacitor is able to block the low-frequency noise and prevent interference with other signals. The SFABL5000680MC0 is designed to ensure that the high frequency noise is filtered out effectively.

The SFABL5000680MC0 is a very useful feed through capacitor that can provide clean and reliable power to sensitive electronic devices. It offers excellent performance in high power applications and can be used to block high-frequency noise and eliminate interference. By using this capacitor, engineers can ensure that their systems are free from unnecessary noise and are able to function at maximum efficiency.

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