UPJ1V151MPD1TA

Aluminum electrolytic capacitors use a process of electrolysis to join two thin plates of aluminum sheet to an anode oxide layer that acts as a dielectric. This allows them to store energy in the form of an electric field between the two conductors. The result is a high capacitance relative to overall size.

The UPJ1V151MPD1TA aluminum electrolytic capacitor is particularly designed for use in computer and telecom systems and can be used in other system types as well, such as audio systems, video systems, harmonized systems, etc. It features a radial lead and snap-in terminal, a 4.3 x 4.3 x 3.2mm size, and a capacitance of 0.15µF ±20%. It is temperature stable and is rated for a voltage of 16V dc.

The UPJ1V151MPD1TA aluminum electrolytic capacitor works by creating an electrostatic field by using the two thin aluminum plates and the dielectric layer waxed between them. When voltage is applied to the terminals, the plates are positively or negatively charged and the dielectric absorbs the charge. The charge is held and stored polymer film dielectric layers which are impregnated with a liquid electrolyte. This structure enables the capacitor to hold its charge for an extended period of time with minimal leakage. The UPJ1V151MPD1TA aluminum electrolytic capacitor has a long life expectancy with reliable performance.

The UPJ1V151MPD1TA aluminum electrolytic capacitor is mostly recommended in applications such as: power supplies, filtering, and bypassing. Moreover, its Tin-Lead plating type provides exceptional resistance to flux residues, moisture and other contaminants, making it highly resistant to adverse environmental conditions. In addition, its long-life characteristics make it suitable for high voltage and high reliability applications.

In conclusion, the UPJ1V151MPD1TA aluminum electrolytic capacitor is an ideal choice for applications requiring a compact, high-capacitance, reliable, and long-life component. Its wide range of operating voltages, excellent thermal stability, and performance make it suitable for various power-intensive applications.