173D396X9010XE3

Tantalum capacitors are widely used in circuity because of their small size and long life-span. The 173D396X9010XE3 is a type of tantalum capacitors that can be used for many different applications. In this article, we will discuss the application fields and working principles of the 173D396X9010XE3.

The 173D396X9010XE3 is a solid electrolytic capacitor that is constructed with an oxide-coated tantalum anode and sintered anode electrodes with highly conductive organic polymer electrolyte. It features a low ESR value, high capacitance and excellent frequency characteristics. The capacitor is rated for a maximum of 10V and has an operating temperature range of -55C to +125C.

The 173D396X9010XE3 is most commonly used as a bypass capacitor in AC/DC power supplies due to its high capacitance value and low ESR. It can also be used in power circuits for high-speed transient response such as commutators, switching circuits, and pulse transformers. Furthermore, it is suitable for a wide range of other applications such as audio equipment, medical equipment, and more.

The working principle of the 173D396X9010XE3 is quite simple. When a voltage is applied to the capacitor, an electric field is created in the oxide layer and this electric field creates a charge imbalance in the polymer electrolyte. This charge imbalance causes a current flow between the two electrodes, resulting in the capacitor to store energy. The capacitance value of the capacitor is determined by the area of the anode, the thickness of the oxide layer, the type of electrolyte and the applied voltage.

In conclusion, the 173D396X9010XE3 is a type of tantalum capacitor designed for a wide range of applications. It is primarily used in AC/DC power supplies but can also be used in a variety of other applications. The capacitor utilizes a oxide-coated tantalum anode and sintered anode electrodes as well as a highly conductive polymer electrolyte for energy storage. The operating principle is based on the creation of an electric field in the oxide layer and this creates a charge imbalance in the electrolyte, resulting in the capacitor storing energy.