199D156X0010C2V1E3

Tantalum Capacitors

The applications and working principles of the 199D156X0010C2V1E3 capacitor can be understood when exploring tantalum capacitors in general. Tantalum capacitors are highly reliable, long lasting and have a very low leakage rate. They are used in a variety of electronic applications, such as smartphones and consumer electronics. They are also used in communications, audio and video equipment, medical devices, automotive applications, military applications and industrial electronics.

Tantalum capacitors are known for their small size, high capacitance and excellent reliability. These capacitors use stoichiometric tantalum oxide as the dielectric material and are available in various types, including surface-mount and through-hole versions. The most commonly used tantalum capacitors are the anode solid-electrolytic, the non-solid and the ceramic-filled polymeric. The differential in sizes of these tantalum capacitors range from 0.47 μ to 3,500 μ.

Tantalum capacitors have high capacitance and low cost, making them popular in the electronics industry. They are extremely stable with regards to time and temperature. The capacitors are rated for a wide operating temperature range and have a very low leakage rate. They are also capable of supporting high ripple current and have an extended life cycle. These characteristics make them well suited for a variety of applications, such as automotive, audio, video, communications, computers and consumer electronics.

The 199D156X0010C2V1E3 capacitor is a surface-mount tantalum capacitor that can be used for a variety of electronic applications. It has a capacitance of 10 μF, an operating voltage of 10 V, a minimum operating temperature of -55°C and a maximum operating temperature of +125°C. The capacitor is non-polarized and is flame-retardant according to IEC-60749-14.

The working principle of the 199D156X0010C2V1E3 capacitor is the same as other tantalum capacitors. The construction of a tantalum capacitor consists of an anode (positive electrode) and a cathode (negative electrode). The anode is made of tantalum particles covered with an electrolyte material. The cathode is made of a sintered material or a porous carbon pellet. When electrical current passes through the capacitor, the negative charges accumulate on the anode and the positive charges accumulate on the cathode.

When the capacitor is connected to a power source, a voltage builds up across the electrodes and forms an electric charge. This charge creates an electric field which causes electrons to move from the anode to the cathode. This movement of electrons is what creates the storage of electric charge, which is what a capacitor does. The rate at which the electrons move is determined by the capacitance, measured in microfarads (μF). The higher the capacitance, the more electric charge that can be stored in the capacitor.

The 199D156X0010C2V1E3 capacitor is designed to be used in a wide variety of electronic applications. It offers excellent reliability and has a very low leakage rate. It is also capable of supporting high levels of ripple current and has an operating temperature range of -55°C to +125°C. The capacitor is flame-retardant and is available in various sizes from 0.47 μ to 3,500 μ.