35THV22M6.3X8

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

Aluminum electrolytic capacitors, also known as electrolyte capacitors, are one of the most commonly used types of capacitors offering a high electrical capacity for a small size. In the electronics industry, aluminum electrolytic capacitors are indispensable components with wide application and high efficiency. The 35THV22M6.3X8 aluminum electrolytic capacitor offers excellent performance for many applications - let’s take a closer look at its application fields and working principle.

Typically, aluminum electrolytic capacitors consist of an anode aluminum foil, a cathode aluminum foil, insulation films, electrolytes, and terminals. These electrolytic capacitors rely on the oxidation of the anode aluminum foil, and its relative saturation with the electrolyte, to create a dielectric to store energy, a process referred to as ‘electrolytic polarization’ that helps achieve higher capacitance values than can be achieved with typical film capacitors.

The 35THV22M6.3X8 aluminum electrolytic capacitor is a radial leaded electrolytic capacitor designed for use in general industrial and consumer applications. It boasts an impressive voltage rating of 250Vdc with an extremely low ESR (Equivalent Series Resistance) of 10mΩ. The capacitor offers a capacitance value of 22μF ±20% in a case size of 6.3mm x 8mm. It is manufactured according to UL94V-0 standards, is RoHS2 and REACH compliant and operates from -40°C to +105°C.

The 35THV22M6.3X8 aluminum electrolytic capacitor can be used for a variety of applications. It can be used as a power supply filter capacitor in wide frequency applications, including AC, DC and rectifier circuit, or as a filter cap in line output applications, such as audio and DC/DC converters. It can also function as an amplifier bypass capacitor, as an energy storage capacitor, as a coupling capacitor for high-speed signals or as a high-frequency impedance capacitor.

Moreover, the capacitor has good self-healing properties and can be used in medium frequency applications, including lighting products, power meter, air conditioner, washing machine, refrigerator and many other types of electronic equipment. The capacitor is also highly resistant to vibrations and can be used in various automotive applications.

In terms of working principle, the 35THV22M6.3X8 electrolytic capacitor works similarly to any other type of capacitor. It works by storing electrical energy between two plates, the anode and the cathode. When a voltage is applied, an electric current flows between the two plates, creating a field and storing the energy as an electric field. The electric field created between the plates creates a capacitance, and the voltage divided by the capacitance measures the capacitance.

The oxide layer between the anode and its electrolyte provides electrical insulation, meaning that the current must travel through the electrolyte in order to create a field. This process of forming an oxide layer from the electrolyte is referred to as an electrolytic polarization. The electric field formed between the plates is the capacitance, and the voltage divided by the capacitance measures the capacitance. This allows the capacitor to act as a filter, allowing certain frequencies of an electrical signal to pass more easily than others, thus conditioning the signal.

In summary, the 35THV22M6.3X8 aluminum electrolytic capacitor is an indispensable component in the electronics industry offering high electrical capacity for a small size. With its impressive voltage rating, low ESR and wide operating temperature range, the capacitor is suitable for many general industrial and consumer applications. Furthermore, its working principle of forming an oxide layer from the electrolyte to create an electric field between the two plates makes it an excellent filter conductor, conditioning the signal and allowing certain frequencies to pass more easily than others.

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