E81D251VNN471MR35T

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Aluminum electrolytic capacitors are one of the most important types of capacitors used for a variety of purposes. E81D251VNN471MR35T, also known as axial-leaded aluminum electrolytic capacitors, are widely used in high-frequency circuits due to their excellent characteristics. The E81D251VNN471MR35T capacitor is a type of radial capacitor that is composed of multiple components. It has an anode of aluminum and a cathode of porous carbon material saturated with electrolyte. The capacitor is then sealed at both ends with seals. The capacitor has a number of features which make it particularly suitable for its intended application. The most important feature of the E81D251VNN471MR35T is its high capacitance density. The combination of the thin film deposited on the anode and a porous carbon cathode result in a higher capacitance per unit area, compared to other capacitors such as ceramic or film capacitors. Furthermore, E81D251VNN471MR35T capacitors also have high voltage ratings and are designed to be used in high voltage circuits. The combination of the anode film and the electrochemical design also ensure that these capacitors have excellent temperature tolerance and are also highly resistant to voltage change due to temperature. The E81D251VNN471MR35T provides good ESR and ESL values, which makes it suitable for filter circuits requiring high load performance. They are also rated to provide a long life expectancy, with a voltage undulation at temperatures up to +125°C up to 5000 hours. In terms of application, the E81D251VNN471MR35T is suitable for an extensive range of high-frequency circuits, including power supplies, display circuits, amplifier circuits, reference voltage regulators, oscillators, modulators, electronic filters, etc. Finally, the operational principle of the E81D251VNN471MR35T can be explained by considering the circuit in which it operates. When the capacitor is connected to the circuit, the electrical charge will move from one side of the capacitor to the other, generating a potential difference between the two surfaces. This potential difference will cause a current to flow through the circuit, which will be dependent upon the capacitance and the voltage. When the current is removed from the capacitor, the electrical charge is kept stored in the dielectric medium, allowing it to be discharged at any given time.

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