EGXF500ELL911ML20S

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Aluminum electrolytic capacitors are widely used in the electronics industry due to their high capacity, low equivalent series resistance (ESR), long life and extremely low cost. The EGXF500ELL911ML20S is a general purpose capacitor and is commonly employed in applications where energy storage is required.

The EGXF500ELL911ML20S is a mature component featuring an aluminum can, two stamped metal plates, two aluminum foil electrodes, and a unique non-solid electrolyte. This combination of materials creates an ideal capacitor for energy storage.

The capacitor can be used in a variety of different applications such as power supplies, audio amplifiers, motor drives, and battery backup systems. The device is also suitable for use in high temperature, high humidity, and high vibration environments. As with all electrolytic capacitors, the EGXF500ELL911ML20S is sensitive to polarities and should be installed with the correct orientation to ensure proper operation.

The EGXF500ELL911ML20S has a working voltage of 25V and a capacity of 500 μF. The size of the component is 5.7 mm × 2 mm × 11.5 mm and its weight is 0.50g. The leakage current of the capacitor is specified as 2uA and its temperature range is -55°C to +105°C.

The working principle of the EGXF500ELL911ML20S is based on a combination of Faraday\'s law of electrolysis and the fact that the capacitance varies with the applied voltage. When a voltage is applied across the two separated electrolyte-soaked metal plates, electrical charges build up and electrons transfer across the separator, which creates an electric field between the plates. When the applied potential is removed, electrons are forced back due to their attraction and repulsion, causing the capacitor to discharge.

In summary, the EGXF500ELL911ML20S is an aluminum electrolytic capacitor which is widely used in a variety of electronics applications due to its high energy storage capacity. The capacitance and temperature range can be adjusted by changing the applied voltage. Lastly, the discharge process is based on a complex combination of Faraday’s laws of electrolysis and instantaneous change of capacitance when a voltage is applied.

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