Dynamic electrolyte for lithium ion battery

Abstract

This invention relates to dynamic lithium ion battery electrolyte and to one safe dynamic high capacity lithium ion electrolyte and discloses the following components: w/w carbonic acid esters agent composed of vinylene carbonate less than 40 percentage; propylene carbonate less than 20 percentage; methyl propionate less than 40 percentage; propylene carbonate less than 40 percentage; lithium salt 10-16 percentage to prevent additive agent phenylcyclohexyl, p-methyl peroxide, phthalandione or fluoride content less than 12 percentage or combustion inhibitor less than 10 percentage and film addictive agent less than 5 percentage.

Description

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AI Technical Summary

Benefits of technology

This patented technology allows for better control over heat generated by batteries when they're used outdoors or stored indoors without losing their effectiveness due to decompositions reactions caused by certain chemicals included therein. By adding specific substances like phytates (a type of acid) which helps stabilizing the elecrosis process and prevent excess charge from causing damage, this results in an excellent combination of properties such as long storage time, safe operation even after being exposed to extreme temperatures, reduced risk of explosions, longer lifespan compared to traditional methods, etc., making them ideal candidates for applications where higher energy density needs to be achieved than what was previously possible beforehand.

Problems solved by technology

This technical issue addressed in this patented text relates to improving the security and reliability of Li ion batteries for applications like electronic devices that require longer lifespan under harsh conditions without causing harmful effects on their functioning well. Current methods involve adding chemical agents into the elecrotic material itself with limited success because it may lead to decomposition or other issues if left untreated. Therefore, new ways to create solid-state LIBs instead of liquids would provide better stability and durability while minimizing any negative side reactions caused by excessive thermal generation from the battery's own components.

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