B43305A9227M000

Aluminum Electrolytic Capacitors are commonly used in various electronic devices. The B43305A9227M000, for example, is a surface-mount aluminum electrolytic capacitor with an organic semiconductor as the electrolyte. It is commonly used in power supply circuits, stabilizing circuits, and high-frequency circuits for TV sets and computers (especially in decoupling networks).

The B43305A9227M000 is a miniature device with an overall size of 10mm x 12.5mm. Its rated capacitance value is 2,200μF, and the rated voltage is 16V. It has a working temperature range of -25°C to +85°C, and an inclined tolerance of ±20%. In addition, the B43305A9227M000 has a maximum leakage current of 0.02CV or 1.3mA at 25°C, whichever is greater.

The working principle of aluminum electrolytic capacitors is quite simple. When electric energy is applied, positive and negative ions are attracted towards their respective electrodes. This creates a depletion layer (insulating layer) between the electrodes, thus forming a capacitor. The capacitance of such a capacitor depends on the size of the electrodes, the distance between them and the medium between them.

The B43305A9227M000 mainly finds application in industrial applications due to its high capacitance value and low ESR. It is also used in automotive and consumer electronics, such as TVs and computers. It is also used in many electronic devices, such as amplifiers, each requiring a large amount of energy during their operation. It can further be used in LED drivers and power converters.

To summarize, the B43305A9227M000 is a surface-mount aluminum electrolytic capacitor that finds application in various electronic devices. It has a rated capacitance of 2,200 μF, rated voltage of 16V and a working temperature range of -25°C to +85°C. It has a maximum leakage current of 0.02CV or 1.3mA at 25°C and is mostly used in industrial applications due to its low ESR and high capacitance. The working principle of aluminum electrolytic capacitors is based on the attraction of positive and negative ions towards their respective electrodes, thus forming a capacitor.