E36D500LPN513TEE3M

Aluminum Electrolytic Capacitors are energy storage devices commonly employed in electronic circuits, typically operating with voltages between 25V and 500V. The E36D500LPN513TEE3M is one of the more modern capacitors available, with high endurance and temperature tolerance. Its primary application is for power transmission in industrial applications, such as energy delivery systems.

The E36D500LPN513TEE3M utilizes non-polarized electrolytic aluminum foil as its anode and cathode materials, with a dielectric material of tantalum oxide. This combination results in a low loss factor and a high temperature tolerance, as well as a long lifespan. These features make the E36D500LPN513TEE3M ideal for use in high-temperature environments, such as those encountered in industrial power delivery and energy transformation systems.

The E36D500LPN513TEE3M possesses a rated capacitance of 500uF and an insulation resistance of 500 ohms. The capacitor has a working voltage of 50V DC, and is capable of withstanding high-temperature environments up to 125°C. It has an internal resistance of 0.5 ohm, and has a rated ripple current of 3.6A.

The working principle of the E36D500LPN513TEE3M involves the electrical storage and release of energy within the capacitor. When a voltage is applied to one end of the capacitor, an electrical field is generated, which causes the opposite end to become negatively charged. This creates a storage of electrical energy within the dielectric layer of the capacitor. When the voltage is removed, the energy stored within the capacitor is released, allowing it to be used in the circuit.

In sum, the E36D500LPN513TEE3M is a modern aluminum electrolytic capacitor designed to provide stable and accurate power transmission in industrial applications. Its combination of electrolytic foil electrodes and tantalum oxide dielectrics provide it with a low internal resistance, high temperature tolerance, and a long lifespan. This makes it ideal for applications requiring power transmission and transformation in high-temperature conditions.