T95R127M020HZAL

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Tantalum capacitors are widely used in various fields. In particular, the T95R127M020HZAL series of capacitors have the advantages of low cost, large capacitance, small size, long life, high reliability, high temperature resistance, and resistance to vibration, making them particularly suitable for high-end electronic products.

Application Field

T95R127M020HZAL Tantalum Capacitors are used in many electronic devices due to their high performance and low cost. These include computers, home appliances, consumer electronics, communication equipment, automotive electronics, medical and industrial equipment, and other electronic devices. These capacitors are also suitable for military and aerospace applications that require long life, low temperature, and high-reliability components.

Since these capacitors feature low ESR and high ripple current ratings, they are often the preferred choice for designers working in applications such as power supplies, noise suppression, decoupling, and motor control. This makes them ideal for use in motherboards, server systems, military fire control systems, oscillators, and even radio-frequency (RF) circuits.

Working Principle

T95R127M020HZAL Tantalum Capacitors utilize an electrolyte and solid or printed tantalum body to store electrical energy. With this design, electricity can be stored and released in a controllable way.

The tantalum capacitor is made up of an anodic metal tantalum plate with an oxide layer on its surface. This layer serves as the dielectric, while the electrolyte acts as the cathode. When a voltage is applied to the capacitor, current flows through the oxide layer, forms an electric field, and stores energy. When the voltage is removed, the stored energy is released and current flows in reverse.

Tantalum capacitors offer various benefits that make them widely used in various applications. These benefits include high capacitance density, higher ripple currents, higher temperature ratings, lower ESR, and higher energy storage capacity. Additionally, they are proven to be reliable and stable even when exposed to high levels of shock and vibration.

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