UPM2C470MHD1TN Capacitors

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 some of the most important applications found in electronics. They consist of two aluminum plates separated by a piece of paper impregnated with electrolyte. Each plate carries an electric charge, and when a voltage is applied, the capacitor "condenses" the charge, acting like a tiny battery for a very short period of time. UPM2C470MHD1TN is an aluminum electrolytic capacitor which is a type of capacitors with a polarized electrolyte, allowing it to store a greater amount of electric charge than other types of capacitors. This makes it useful in a variety of different applications.

UPM2C470MHD1TN is a standard axial leaded non-polarized aluminum electrolytic capacitor with ‘D’ SNAP-IN terminals and radial lead spacing. It has a capacitance of 470uF and a rated voltage of 400V, making it suitable for a wide range of high power applications. In addition, it has a temperature range of -45°C to 85°C. The product is manufactured in ISO-14001 certified environment and it is offered in a variety of leaded and SMT versions.

The UPM2C470MHD1TN has a wide range of applications, including signal processing, filtering, snubber, hold-up, memory back-up, burst load, and power factor compensation. In signal processing, the capacitor\'s high capacitance helps reduce the noise in the signal by allowing the signal to pass through it without reducing the amplitude. In filtering and snubbing applications, the capacitor is used to smooth out spikes and sudden surges in power for higher efficiency, as well as preventing power losses. The UPM2C470MHD1TN can also be used in hold-up applications, for example, to maintain the power supply for a fraction of a second if there is a power interruption. This can be useful in systems where the power should remain on even after an outage, such as computers and telecommunication systems. It can also be used in applications where the voltage needs to be regulated, such as burst load and power factor compensation.

The working principle of UPM2C470MHD1TN is similar to that of other aluminum electrolytic capacitors. When electric current passes through it, two plates, one anode and one cathode, separate and create an electric field. The electric field is maintained by an electrolyte, which is a liquid or gel that conducts electricity when it is in contact with an anode and cathode. As electric current passes through the electrolyte, ions are exchanged between the anode and cathode. This exchange creates positive and negative charges that are stored in the form of electric field energy, which is the basic principle behind aluminum electrolytic capacitors.

The UPM2C470MHD1TN aluminum electrolytic capacitors offer several advantages for electronics applications. They are durable, come with a wide range of ratings, feature low equivalent series resistance, and have a low equivalent series inductance. They also have a low self-inductance and a low leakage current, making them ideal for applications requiring high capacitance. Their long service life and excellent thermal performance make them a great choice for a variety of electrical applications. In addition, they offer good performance even when exposed to extreme temperature variations.

In conclusion, UPM2C470MHD1TN aluminum electrolytic capacitors are a reliable and cost-efficient choice for applications that require high capacitance and excellent performance in high temperature environments. With a wide range of ratings and a low leakage current, they are suitable for a variety of high power applications, including signal processing, filtering, snubber, hold-up, memory back-up, burst load, and power factor compensation. Their long service life, low self-inductance, and high capacitance make them well-suited for electronics applications that require reliable and efficient operation.

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