Interactive electrostatic field high energy storage ac blocking capacitor

Abstract

An interactive electrostatic field high energy storage AC blocking capacitor includes an active interactive electrostatic field charging plate in the form of a charging plate formed by forming three longitudinally parallel and partially spaced segmented closed continuous electric rings of conductive material Formed, comprising a middle section and two outer sections located on either side of the middle section. The charging plate in the form of an active interactive electrostatic field charging plate is capacitively coupled to the negative plate through a medium, and the negative plate is provided with a connector to connect with the circuit. The middle section is provided with a connector to connect it to a charge source, and the two outer sections are electrically connected to the middle section so as to have opposite charging currents flowing. When charging the active electrostatic field inverting charge plate, a charging current flows around the middle section of the active alternating electrostatic field charge plate to charge it while generating an electrostatic field focused along its outer edges.

Description

technical field [0001] The invention relates to electronic components, more specifically, to an alternating electrostatic field high energy storage AC blocking capacitor. Background technique [0002] The electrical energy E (joules) stored by all capacitors satisfies the following relationship: [0003] E=CV 2 / 2 (Joule); where C is the capacitance, C=KKoA / d (Farad). [0004] As we all know, based on the above energy formula, if the charging voltage V (volt) of the capacitor is increased high enough, the charge density of the capacitor will likely be greater than that of the battery, so that it can be charged for a period of time to charge the battery during this period , In this way, as a high-density electric energy storage device, this capacitor will surpass the battery. The capacitance of the capacitor can be increased by using a dielectric material with a sufficiently high dielectric constant and / or increasing the surface area of ​​the charging plates and / or reducin...

AI Technical Summary

Problems solved by technology

This causes a breakdown of the dielectric material, allowing the charge to be discharged as a current onto the negative plate of the capacitor at low charging voltages, which limits the voltage at which the capacitor can store electrical energy

This situation will be further exacerbated when the storage capacity of the capacitor is increased by increasing the dielectric constant in high energy storage capacitors

Images