UVZ2D471MRH

Due to market price fluctuations, if you need to purchase or consult the price. You can contact us or emial to us:   sales@allicdata.com

Aluminum electrolytic capacitors are energy storage devices that store electrical energy. Though these capacitors may appear small and insignificant, they can securely store and dissipate large amounts of energy, making them applicable to all sorts of electrical appliances. The UVZ2D471MRH is one such capacitor that comes with a range of features that makes it suitable for a wide range of applications. Additionally, the working principle behind this type of capacitor helps to understand how it is used and how it works.

The UVZ2D471MRH has a total rated voltage of 450V AC. Also, the design of the product allows it to effectively store a large amount of energy. The product consists of two columns that contain a rolling metal strip, and these strips are designed to curl up and unroll upon receiving a voltage. This rolling and unrolling technique allows for a greater amount of energy to be stored in the capacitor. This feature makes it an ideal choice for applications like inverters, converters, power supplies, and motor drives.

Moreover, the design of this capacitor also has temperature and time characteristics that are optimized to meet the specific duties of the application. The temperature of this capacitor is capable of withstanding up to 85 degree Celsius continuously, making it quite robust and suitable for extreme conditions. Additionally, the feature which grants it a long life is the CNV-T (Cabon Nitride) coating that is applied to this product. This coating is suitable for multiple-use operations and prevents any failure during fluctuating voltages.

The design of this capacitor is also endowed with a thermal detection system. The system detects and alerts when the capacitor is overheating and automatically shuts down before any permanent damage can occur. This feature allows greater power efficiency and ensures the product is protected under extreme conditions. Thus, this capacitor can be used in multiple contexts and current levels like switching and conduction levels.

Let’s now look at the working principle of the capacitor. The design of a capacitor utilizes two plates with a dielectric material in between; when a potential difference is applied to the plates, electrical field is generated between them. This charge separates the plates and is stored in the form of an electric field until the capacitor is discharged. Thus, the capacitance of a device determines the amount of charge it can store.

Moreover, the design of the capacitor also utilizes a dielectric material to separate the plates. This dielectric material can be a ceramic, mylar, paper, plastic, or aluminum oxide, amongst others. The materials are chosen based on the application requirements, frequency, temperature, and other factors. In this case, the aluminum electrolytic capacitor uses aluminum oxide as a dielectric material.

The UVZ2D471MRH capacitor also uses an electrolyte that, when filled with an electrolyte solution, helps to separate the inner and outer electrodes. Furthermore, this electrolyte also helps to conduct current from one electrode to the other, thus allowing the capacitance of the device to be increased or decreased. This technology also ensures that there is no leakage or failure in the electrolytic capacitor both during normal and surge operations.

Finally, the working principle of any aluminum electrolytic capacitor also relies on the building of an electric potential and field. This charge builds up until it reaches a point, beyond which the capacitor is unable to contain the charge. This break down in the electric field is usually termed as the ‘Endurance Limit’, after which point further increase in the applied voltage may cause permanent failure. Therefore, once over the endurance limit voltage, these capacitors tend to fail if they are not replaced.

In conclusion, the UVZ2D471MRH aluminum electrolytic capacitor is a reliable and robust energy-storing device, with features geared towards extreme operational situations. Its design makes it an ideal choice for a wide range of applications, including inverters, converters, power supplies, and motor drives. Additionally, its working principle reflects the complexity behind the product, which uses a dielectric material and electrolyte solution to increase and decrease capacitance.

The specific data is subject to PDF, and the above content is for reference