EKZE350EC5182ML25S

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Aluminum Electrolytic Capacitors are electrolytic capacitors featuring a uniquely large electric storage capacity. They are constructed using a solid conductive electrolyte that offers relatively high capacitance values in a small package. The EKZE350EC5182ML25S is an Aluminum Electrolytic Capacitor that can be used in a variety of applications. This article will discuss the application field and working principle of the EKZE350EC5182ML25S.

Application field of EKZE350EC5182ML25S

The EKZE350EC5182ML25S is a Radial Leaded Aluminum Electrolytic Capacitor with a cylindrical shape. It has a low profile design and is designed for use in high-temperature and high-humidity environment where a wide temperature range is required. It is an ideal choice for high-temperature applications such as power supplies, medical imaging, and automotive control systems. The EKZE350EC5182ML25S is also suitable for space constrained applications such as cell phones and portable medical instruments. It can be used to reduce EMI/RFI between different active equipment platforms.

The EKZE350EC5182ML25S is designed to be used in a wide range of voltage, frequency, and temperature ranges. It can be used in 150 Hz – 400 Hz frequency range with operating voltages up to 35 VDC. These capacitors are also capable of withstanding temperatures from -55°C to +105°C.

Working Principle of EKZE350EC5182ML25S

The working principle behind the EKZE350EC5182ML25S is based on its construction materials and operating principle. It features a cylindrical design in which two aluminum foils are separated by a dielectric oxide layer. The oxide layer is then impregnated with a special conductive electrolyte. This results in an electrolytic capacitance between the two foils in which an electric charge is stored.

The working principle of the EKZE350EC5182ML25S can be divided into two parts. The first part is the charging process. During this process, electric charges from the power supply are stored in the capacitor. These charges create a voltage across the two electrodes, resulting in an electric field. This electric field then induces a current flow through the capacitor, resulting in a build-up of electric charges on the capacitor plates. This is how an electric charge is stored within the capacitor.

The second part is the discharging process. During this process, the electric field between the two capacitor plates is reversed, resulting in current flowing through the capacitor in the opposite direction. This results in a decrease in the stored electric charges, thus decreasing the voltage across the capacitor. This is how an electric charge is released from the capacitor.

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