UVZ1V471MPD1TD Capacitors

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Aluminum electrolytic capacitors have been widely used in a variety of applications, including energy conversion, lighting, measurement systems, power control, and power supply for telecommunications. One of the most common types of aluminum electrolytic capacitors is the UVZ1V471MPD1TD series, which is designed to meet the requirements of the automotive and industrial applications. This article will discuss the application field and working principle of UVZ1V471MPD1TD.

The UVZ1V471MPD1TD is an ideal choice for a variety of applications, including automotive and industrial environments. Its high reliability and performance make it an ideal choice for long-term applications. Its 50V rating makes it suitable for a wide range of load current, power rating, and voltage regulation applications. Additionally, its ultra-low impedance and small case size provide superior protection against over-voltage and noise surges.

The UVZ1V471MPD1TD series consists of snap-in aluminum electrolytic capacitors that are designed to deliver superior performance in a variety of conditions. The snap-in design allows the capacitor to be easily installed and allows it to fit within limited space in confined areas. It is available in a variety of case sizes and capacitance values ranging from 0.22uF to 470uF.

The UVZ1V471MPD1TD uses a construction method known as axial leaded aluminum electrolytic capacitor construction. This means that an anode, or positive terminal, is connected to a cylindrical sleeve or pound core, while a cathode or negative terminal is affixed to the corresponding electrical lead-out wire. The capacitor is then filled with an electrolyte, generally a gelatinous compound, and sealed. This sealing process prevents the electrolyte from drying out or leaking, increasing reliability and performance.

The working principle of the UVZ1V471MPD1TD is based on electrolytic conduction theory. This involves the flow of electrical current between two electrodes in an electrolyte. The current flow between the electrodes is known as electrolytic conduction and is driven by ions in the electrolyte. The polarization of the electrodes is determined by the type and concentration of the electrolyte, which allow a particular voltage to be applied across the electrodes.

When a voltage is applied across the capacitor, the electrolyte molecules are attracted to the electrode and are then driven into the gap between the electrodes. This attraction is caused by the charge difference between the two electrodes, known as the applied voltage potential. The charged molecules are held in the gap until the potential is removed or a current is applied.

The process of such polarization is affected by several physical parameters, such as the amount of electrodes, the electrolyte, the area of the electrodes, the temperature, as well as the internal resistance of the device. As a result, the resultant capacitance can be calculated by taking these factors into consideration.

In addition to its application field and working principle, it is important to note that the UVZ1V471MPD1TD has superior endurance and reliable operation. Its long-term stable operation, low impedance, and wide temperature range from -40 to 105 ˚C, ensure reliable performance and operation in all kinds of environments. Furthermore, its snap-in design ensures that the capacitor can be easily installed in any limited space.

In conclusion, the UVZ1V471MPD1TD series is a reliable and popular choice for a variety of applications, due to its superior performance, long-term stability, and wide temperature range. Its snap-in design allows it to be easily installed in confined spaces, while its axial leaded aluminum electrolytic capacitor construction results in superior protection against overvoltage and noise surges. Additionally, its working principle is based on electrolytic conduction theory, which involves the flow of electrical current between two electrodes in an electrolyte.

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