UCD1A471MCL6GS

Aluminum electrolytic capacitors are components widely used in electronics circuits. As the name implies, these capacitors are composed of two sets of electrodes embedded in a dielectric which is most commonly an electrolyte. The UCD1A471MCL6GS is an aluminum electrolytic capacitor. It has a wide variety of applications and its working principle is relatively simple to understand.

The UCD1A471MCL6GS is a snap-in type aluminum electrolytic capacitor. It has a small size with a maximum diameter of just 0.67” and a maximum height of 0.60”. This makes it well-suited for applications where space is at a premium. It also has some additional advantages over other capacitor types, such as a low equivalent series resistance (ESR) and a long life span.

The UCD1A471MCL6GS is suitable for use in a range of electronic circuits. It’s commonly used for decoupling purposes in computer power supplies, audio amplifiers, and communications equipment, and it’s often preferred for its low ESR. As with other aluminum electrolytic capacitors, it can handle higher-frequency signals without becoming unstable and can handle large amounts of charge without deteriorating.

The UCD1A471MCL6GS’s working principle is simple. It’s an electrolytic capacitor, meaning it features two sets of electrodes, one made of metal and the other made of an electrolyte material. The metal electrode is the anode while the electrolyte electrode is the cathode. When a current is applied, electrons travel from the anode to the cathode, creating an electric field within the capacitor.

The electric field created is used to store energy. The capacitance of the UCD1A471MCL6GS is 470uF (microfarads). This means it can store 470 uC (microcoulombs) of electric charge. When a voltage is applied across the terminals, a current of 470 uA will flow. This current will then charge the capacitor and store energy in the electric field, which can then be used to power the circuit.

Overall, the UCD1A471MCL6GS is an excellent choice for a range of applications. It’s small size allows it to fit in places where other capacitors wouldn’t, and its low ESR makes it ideal for high-frequency applications. Its working principle is fairly straightforward - a current is applied and electrons travel from anode to cathode, creating an electric field which stores energy. As such, it’s well-suited for a range of electronic circuits.