150D395X0020B2T

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

Tantalum capacitors are a type of capacitor that is composed of a tantalum pellet with two electrodes attached. The pellet is a dielectric material, generally a ceramic, that has been soaked in electrolytic solution and then covered in a thin film of metallic oxide. The electrodes are then connected to the pellet, forming a capacitor with a very low ESR (equivalent series resistance) when compared with other types of capacitors.

The 150D395X0020B2T is a type of tantalum capacitor specifically designed for surface mount applications. It has two terminals, and a maximum operating voltage of 6.3V. The capacitor has a capacitance of 3.9uF, and its temperature coefficient is 25*10^-6/K. It is also designed to have an increase in capacitance over temperature.

The application field for the 150D395X0020B2T is quite diverse. This capacitor is commonly used in audio and video systems as a noise and interference filter. It is also used in telecommunications systems to provide a stable power supply for the system. The capacitor has been used as an energy storage device as well.

The working principle of the 150D395X0020B2T is relatively simple. When a voltage is applied across the two terminals of the capacitor, an electric field is created within the pellet. This creates a charge imbalance across the electrodes, and as a result, a current will flow. The current flowing in the capacitor is primarily dependant on the applied voltage and the capacity of the capacitor. As the applied voltage increases, more current will flow, and the capacitor charges accordingly.

In summary, the 150D395X0020B2T is a type of tantalum capacitor specifically designed for surface mount applications. It has a capacitance of 3.9uF, and a temperature coefficient of 25*10^-6/K. It is used in audio and video systems, telecommunications systems, and as an energy storage device. Its working principle is based on the generation of an electric field within the capacitor due to the application of a voltage across the two terminals, resulting in a charge imbalance and a current flowing in the circuit.

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