36D362F150CC2A

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Aluminum Electrolytic Capacitors (AECs) are among the most widely used and versatile components in the electronics industry, and they often play an essential role in many circuits, providing capacitance values necessary for amplifying or filtering signals. The 36D362F150CC2A is an example of such a component, offering a wide range of features that can suit a variety of capacitor applications. This article will provide an overview of the major features and applications of these capacitors, as well as explain their working principles.

Features: Starting with the features, the 36D362F150CC2A capacitors come equipped with a variety of valuable characteristics. The design features a low equivalent series resistance (ESR) that allows for minimal energy loss and a low impedance that helps ensure stable performance. The capacitance range of these AECs is between 15 μF and 150 μF, which provides ample capacitance to suit different applications. The 36D362F150CC2A also has an operating temperature range of -40 °C to +105 °C, which makes them suitable for use in a wide variety of conditions. The maximum allowable ripple current and the rated voltage for these capacitors are 0.7 ARMS/100kHz and 390 VAC, respectively.

Application Fields: Thanks to their diverse capabilities and features, the 36D362F150CC2A Aluminum Electrolytic Capacitors are well-suited for multiple capacitor applications. These include power conversion systems, power supplies, industrial automation, motor drives, data communications, medical equipment, automotive and consumer electronics. All of these applications use AECs to provide different types of capacitance values, which allow them to protect circuits from voltage drops or intermittent power surges.

Working Principle: These AECs work on the principle of charging and discharging. First, the capacitor stores the electrical energy as positive and negative ions in the electrolyte. As soon as the voltage is applied across the terminals of the capacitor, a process known as electrolytic charging occurs. During this process, the positive and negative ions are again separated inside the device and an electric current begins to flow. Once the electric current is strong enough, a reactive field forms between the electrodes, which results in the capacitor storing electrical energy.

After the capacitor has stored the electrical energy, it will gradually begin to discharge it until it is completely drained. This process is known as electrolytic discharging and it involves the positive and negative ions recombining and the electric current returning to the source. This discharging process will continue until the electric current reaches a zero or negligible value. At this point, the capacitor can be said to be fully discharged.

In summary, the 36D362F150CC2A Aluminum Electrolytic Capacitors offer a range of features and features ideal for multiple capacitor applications. Thanks to their low equivalent series resistance, high capacitance, and wide operating temperature range, they can provide reliable performance in many different conditions. Furthermore, their working principle revolves around the concept of charging and discharging, which can be used to provide stability and reliability in the circuits they are used in.

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