B41695A7477Q9

Aluminum Electrolytic Capacitors

Aluminum electrolytic capacitors are capacitors that are made of two conductive electrodes that are separated by aluminum oxide as the dielectric. They are typically used in power supplies, power conversion circuits, signal generation and conditioning, loaddump protection, and holdup capacitance. Aluminum electrolytic capacitors are widely used across a variety of industries due to their stability, low cost, and small package size.

B41695A7477Q9 application field and working principle

The B41695A7477Q9 aluminum electrolytic capacitor is often used in power conversion applications, switching power regulators, and power factor correction circuits. They can also be used for beam forming networks and other signal filtering applications. The working principle of the B41695A7477Q9 is fairly simple. It has two electrodes separated by an aluminum oxide dielectric. An electrical current is applied to the capacitor, and this current forms an electric field across the capacitor. This electric field creates a charge on the capacitor’s electrodes, allowing a capacitance to be generated.

The B41695A7477Q9 has a rated capacitance of up to 470µF and a rated voltage of up to 400V. It also has a load life of up to 2000 hours and tantalum capacitors can be moved and attached without any tools. The B41695A7477Q9 is also lead free, which allows for meet more stringent environmental requirements.

The B41695A7477Q9 is also reliable and resistant to vibration. It has an operating temperature range of -40°C to 105°C, making it suitable for a wide range of applications. The device also has a large capacitance and a low ESR. This helps ensure that the capacitor doesn’t interfere with the performance of the circuit.

Overall, the B41695A7477Q9 aluminum electrolytic capacitor is a reliable, cost-effective, and easy to use device. Its wide operating temperature range and large capacitance make it suitable for a variety of applications. Additionally, its lead-free construction meets more stringent environmental requirements.