ELXM3B1VSN391MA30S

Aluminum electrolytic capacitors serve an important function in electrical and electronic circuits. They provide a high-frequency capacitance value in a relatively compact package; this enables them to be used in a variety of applications. ELXM3B1VSN391MA30S is one type of aluminum electrolytic capacitors. This article will discuss the application field and working principle of ELXM3B1VSN391MA30S.

ELXM3B1VSN391MA30S capacitors have a volumetric capacitance of 5.8μF and a maximum ripple current of 0.2A. They have a rated voltage of 16V and an ESR of 0.07Ω. They are designed to operate in -40 to +85 degree Celsius temperature ranges. These capacitors have excellent low leakage and surge characteristics. They are ideal for decoupling between ICs and supply lines, application-specific power supply and discharge applications.

The working principle of aluminum electrolytic capacitors is based on Faradays law of electrolysis. This law states that when an electric current is applied to an electrolyte, it results in the decomposition of the electrolyte and deposition of some electrolyte ions on the electrode. This deposition forms a thin, polarized, and porous film that acts as a dielectric between the two electrodes. A voltage is then applied across the two electrodes. The electrical field thus created attracts and accumulates more ions within the dielectric layer, increasing the capacitance of the capacitor. The thicker the dielectric layer, the higher the capacitance value

Aluminum electrolytic capacitors are ideal for use in applications that require rigorous stability over wide temperature ranges and long-term reliability. ELXM3B1VSN391MA30S capacitors are well suited for demanding applications such as power supplies, power conditioning, signal conditioning, plasma displays, and RF transmitters and receivers. They offer superior performance in terms of low ESR, low leakage, and surge current performance.

In conclusion, ELXM3B1VSN391MA30S capacitors are a type of aluminum electrolytic capacitors. They offer excellent performance in terms of low ESR, low leakage and high surge current. They are ideal for applications that require stability over wide temperature ranges and reliable long-term performance. They are suitable for demanding applications such as power supplies, power conditioning, signal conditioning, plasma displays, and RF transmitters and receivers.