MAL203659109E3

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

Aluminum electrolytic capacitors are essential electronic components in the manufacturing of circuits and control panels. As a type of capacitor, they store electrical energy temporarily in an electric field and can be used as a separate component or within a construction. The MAL203659109E3 is one of these devices and has a wide range of applications due to its varied construction, properties, and features. In this article, we\'ll explain the working principles and general application fields of this model.

Structure of MAL203659109E3

The MAL203659109E3 consists of an aluminum can that serves as the outer casing and an electrolytic cathode (positive electrode), an electrolytic anode (negative electrode), an electrolyte, and a solid-state capacitor. The positive and negative ends of the capacitor are connected to the anode and cathode respectively.

The anode is the active site of the capacitor. It is fabricated from an anodic oxide (AO) layer, which is coated with an Al foil. This layer offers higher surface area and improved surface chemistry for the capacitor, allowing it to store and release energy efficiently. The cathode, on the other hand, is made of axial lead, which is inserted into the anodic oxide for electrical continuity and longevity.

The electrolyte, which is typically a solution of water and acetic acid, ensures the electrical conductivity between the positive and the negative poles of the capacitor. The energy stored in the MAL203659109E3 is then discharged when a potential difference is applied across the capacitor.

Working Principle

The working principle of the MAL203659109E3 is similar to that of other capacitors. The energy stored in the device is discharged through the electrolyte, when a voltage difference is applied across the anode and cathode and the chemical reactions occur. This is known as electrolysis.

At the anode, the reaction takes place by releasing electrons during the electrolysis process. The negative charges on the anode are repelled and attracted to the negative ions present in the electrolyte, resulting in a current flow. This current flow from the anode is then transferred to the positive terminal of the capacitor. The electric charge on the cathode is then sent to the positive terminal.

The overall effect of this reaction is the generation of a current in the cycle form between the positive and negative electrodes. The transfer of energy generated in this way is known as an electrolytic effect. This cycle repeats until the chemical energy stored in the capacitor has been completely discharged.

Applications

The MAL203659109E3 has a number of applications, thanks to its efficient working principles. It can be used in a range of industries, including automotive, consumer electronics, medical, industrial, and measurement and control systems. In particular, the device is often used in devices that require peak current demands, such as amplifiers, switching speed circuits, and power supplies. The device can also be used as a filtering device to reduce voltage and current fluctuations.

The MAL203659109E3 also offers good resistance to damage from vibration and heat, making it suitable for use in high-temperature environments and circuits that are prone to mechanical stress. Furthermore, it has excellent electrical characteristics, such as high frequency response, low temperature coefficient, high specific capacitance, and low equivalent series resistance. This makes it ideal for applications where a high level of stability is needed.

Conclusion

The MAL203659109E3 is an aluminum electrolytic capacitor that offers a wide range of features and properties. Its efficient working principle allows it to store electrical energy temporarily and it can be used in a variety of circuits and applications. Its excellent properties make it suitable for use in high-temperature and vibration-prone environments and in circuits that require peak current demands.

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