ESHSR-3000C0-002R7A5

Electric Double Layer Capacitors (EDLC) are a type of capacitor which use two layers of ions for energy storage. They have low internal losses and can store large amounts of energy for a short period of time. EDLCs are particularly useful for applications such as energy buffers for pH control and emergency power back-up.

EDLCs work by using two layers of ions to create an electric double layer on the capacitor plate. As electricity is applied to the capacitor plates, the positive ions move to the negative plate and the negative ions move to the positive plate. This causes an electric double layer to form within the capacitor plates. This double layer is then surrounded by an electrolyte, allowing current to flow through the capacitor and eventually store energy.

ESHSR-3000C0-002R7A5 is a type of EDLC. It has a rated capacitance of 3000 Farads at 1.5V, which means it is able to store a lot of energy in a small device. The maximum operating temperature for this device is 70°C, and it has an ESR of 0.002 Ohms, allowing for very low internal losses.

Supercapacitors are a type of capacitor that are used to store energy in a high-density form. They are often used for applications such as regenerative braking in electric vehicles, energy storage in renewable energy systems, and replacement of traditional batteries.

Supercapacitors work by using electrodes with a high surface area and a porous material. This material is typically a carbon-based material such as activated carbon or graphene. When an electric current is applied to the capacitor, the ions within the material move towards the opposite charged terminal of the capacitor, creating an electric double layer. This double layer stores the energy, much like an EDLC.

ESHSR-3000C0-002R7A5 is a type of supercapacitor. It has a rated capacitance of 3000 Farads at 1.5V, which means it can store a lot of energy in a small device. The maximum operating temperature for this device is 70°C, and it has an ESR of 0.002 Ohms, allowing for very low internal losses.