EEV-HD1H100P

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 energy-storage electronic components which use electrical energy to store electrical energy. They are typically made of rolled aluminum foil and insulated material which are then impregnated with a nonvolatile electrolyte. EEV-HD1H100P is a popular aluminum electrolytic capacitor that is widely used in many applications. This paper will discuss the application fields of EEV-HD1H100P and its working principle.

Application Field of EEV-HD1H100P

EEV-HD1H100P is a low profile, surface mount aluminum electrolytic capacitor which is suitable for applications such as audio, high frequency circuits, general digital circuits and other industrial areas where miniaturization and high capacitance are in demand. Its size is only 0.9"x 0.35" (22.5mmx9mm) which makes it ideal for use in tight spaces. It offers a capacitance of 100uF with an operating temperature range of -40°C to +85°C. The working voltage of EEV-HD1H100P is rated up to 50V. The high volumetric efficiency and low equivalent Series Resistance make it an ideal choice for a variety of applications including energy storage, filtering, damping, and decoupling.

EEV-HD1H100P is also ideal for automotive applications because of its high humidity resistance and vibration proof design. It has excellent noise suppression characteristics and wide temperature range of -55 °C to +105 °C. Its robust design is resistant to harsh environment conditions and it has a long life span of up to 3000 hours. Its optimized design ensures a minimum of 100% capacitance at first loading condensate and after 15,000 hours of operating life at full temperature range.

Working Principle of EEV-HD1H100P

EEV-HD1H100P is an aluminum electrolytic capacitor used in a number of electronic applications. It works on the principle of Faraday’s Law of Induction which states that an electric field is created when electric current is passed through a capacitor. In EEV-HD1H100P, the aluminium electrode is an anode and the electrolyte is a di-electric medium that helps in the formation of electric field. This electric field is used to store energy in the form of electric potential.

When an electric current passes through an electrolytic capacitor, a reversible reaction takes place which produces electrons. The positive ions migrate towards the anode and the negative ions towards the cathode. The ions form a thin film on the aluminium which acts as a dielectric. This stored electric potential separates the electric charge and hence it has the ability to store energy. The capacitance is determined by the thickness of the dielectric film and the area of the electrode.

EEV-HD1H100P is a polarised electrolytic capacitor which stores an electric potential until the voltage across the capacitor exceeds a certain threshold. The energy stored in the capacitor is inversely proportional to the front leakage current. This means that as the leakage current increases, the energy stored in the capacitor decreases. The leakage current also depends on the temperature of the capacitor. At higher temperatures, the leakage current increases and the capacitor will not be able to store as much energy as in cold conditions. Anyway, it is important to keep in mind that EEV-HD1H100P capacitors should not be subjected to an operating temperature higher than 105 °C for long periods of time.

In conclusion, EEV-HD1H100P is an ideal aluminum electrolytic capacitor for a variety of applications including audio, high frequency circuits, general digital circuits and other industrial areas. It is highly resistant to environmental factors such as humidity and vibration and offers a stable capacitance up to 3000 hours of operating life. The working principle of the EEV-HD1H100P is based on Faraday’s Law of Induction and its capacitance is determined by the thickness of the dielectric film and the area of the electrode.

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