EEE-1CA100NR

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Aluminum Electrolytic Capacitors

Aluminum electrolytic capacitors are available in a wide range of types, sizes, and operational characteristics. An EEE-1CA100NR is an aluminum electrolytic capacitor that has polarized electrodes and is designed for applications requiring large capacitance with a small size. This type of capacitor is typically used for decoupling, filtering, and bypass applications.

Features of the EEE-1CA100NR

• Tantalum cathode: Excellent low-temperature stability
• Low leakage current & long life
• High ripple current capability
• Thin-film anode and cathode: Low ESR & DF
• High operating temperature up to 125°C
• High CV product & low ESR

Application Fields of the EEE-1CA100NR

The EEE-1CA100NR aluminum electrolytic capacitor is ideal for use in a wide range of applications, including:

• Motor control
• Reactive power compensation
• Electrical switching/transmission
• Filter and output circuits
• High current, inverter, and converter circuits
• DC/DC, AC/DC, and AC/AC conversion circuits
• Primary and secondary rectification circuits
• Power conditioning, battery, and frequency control circuits
• Switch mode power supplies and LED lighting
• LED display, decoupling, and bypass circuits

Working Principle of the EEE-1CA100NR

An aluminum electrolytic capacitor is a type of capacitor that uses a liquid electrolyte, such as layered aluminum oxide, to store electrical energy. An EEE-1CA100NR capacitor is composed of two electrodes, a liquid electrolyte, and a separator or dielectric between them. The electrolyte is a solution of an acid-based electrolyte, such as potassium hydroxide, and is just a few microns thick. The separator is a porcelain-covered aluminum foil, which acts as an insulating layer.

The capacitor stores electrical energy by charging up the electrolyte and creating a potential difference between the two electrodes. The potential difference increases as the electrolyte is charged up. When the capacitor is connected to a circuit, the current that flows through it will cause the electrolyte to be discharged and the potential difference between the two electrodes will decrease.

The capacitor\'s capacitance is determined by the area of the electrode and the thickness of the electrolyte between them. As the size of the capacitor increases, its capacitance also increases. The amount of current that the capacitor can handle is also related to its size, as larger capacitors can handle higher current levels than smaller ones.

Conclusion

The EEE-1CA100NR aluminum electrolytic capacitor is an ideal choice for applications requiring large capacitance with a small size. Its unique design and features make it an optimal choice for applications such as motor control, reactive power compensation, electrical switching/transmission, DC/DC, AC/DC, and AC/AC conversion circuits, and power conditioning, battery, and frequency control circuits. The working principle of the capacitor is based on the charging and discharging of a liquid electrolyte between two electrodes.

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