B41827A6104M

Aluminum electrolytic capacitors are the primary choice of capacitors in motor drives, power supplies, audio and radio equipment, and other electronic applications requiring a large volume of storage and transfer of electrical energy. This is due to their high dielectric constant needed for a given capacitance in a given unit of volume.

The B41827A6104M is a type of aluminum electrolytic capacitor. It has a high capacitance to voltage rating of just 6.3 μF and 1KV. It stands out among its type because it is able to withstand high temperatures up to 105°C. The B41827A6104M is ideal for switch-mode power supplies, welding applications, and other high-reliability applications.

The B41827A6104M has two primary components. One is the metalized aluminum foil which acts as the first electrode and the second is a electrolyte-soaked paper separator acting as the dielectric. The two electrodes of the aluminum electrolytic capacitor can be connected either in series or in parallel. When they are connected in parallel, they behave as a single capacitor, and when they are connected in series, their capacitances add up.

The Working Principle of the B41827A6104M is based on a self-healing process. When an external electric field is applied to the capacitor elements, electricity is conducted through the electrolyte between the anode and the cathode. These forming ions establish a conductive layer which acts as a dielectric that allows for the current to flow. As the current flows through the dielectric layer, the charges accumulate on the anode and the cathode, which increases the capacitance of the capacitor. However, as the voltage of the capacitor increases, the conductive layer breaks down and dissipates the excess energy.

In summary, the B41827A6104M is an aluminum electrolytic capacitor that offers high capacitance and voltage ratings, can withstand high temperatures, and operates on the principle of self-healing. It is primarily used in motor drives, power supplies, audio and radio equipment, and other high-reliability applications.