View source for 18284743. METHODS OF IMPROVING ELECTRODE STABILITY IN HIGH VOLTAGE ENERGY STORAGE DEVICES simplified abstract (OHIO STATE INNOVATION FOUNDATION)

=METHODS OF IMPROVING ELECTRODE STABILITY IN HIGH VOLTAGE ENERGY STORAGE DEVICES=


==Organization Name==

[[:Category:OHIO STATE INNOVATION FOUNDATION|OHIO STATE INNOVATION FOUNDATION]]


[[Category:OHIO STATE INNOVATION FOUNDATION]]

==Inventor(s)==

[[:Category:Jung Hyun Kim of Plain City OH (US)|Jung Hyun Kim of Plain City OH (US)]][[Category:Jung Hyun Kim of Plain City OH (US)]]

[[:Category:Chanyeop Yu of Columbus OH (US)|Chanyeop Yu of Columbus OH (US)]][[Category:Chanyeop Yu of Columbus OH (US)]]

[[:Category:Xinwei Jiao of Hilliard OH (US)|Xinwei Jiao of Hilliard OH (US)]][[Category:Xinwei Jiao of Hilliard OH (US)]]

==METHODS OF IMPROVING ELECTRODE STABILITY IN HIGH VOLTAGE ENERGY STORAGE DEVICES - A simplified explanation of the abstract==


This abstract first appeared for US patent application 18284743 titled 'METHODS OF IMPROVING ELECTRODE STABILITY IN HIGH VOLTAGE ENERGY STORAGE DEVICES

==Simplified Explanation==

The patent application describes a solid electric conductor composed of two populations of particles, one being an ionically conducting solid-electrolyte and the other an electrode active material. This composition allows for high specific energy, good cycle/calendar life, and low cobalt loading to reduce battery cell costs.

* The solid electric conductor includes two discrete populations of particles: one with an ionically conducting solid-electrolyte and the other with an electrode active material.
* The composition enables high specific energy, good cycle/calendar life, and low cobalt loading for cost reduction in battery cells.

== Potential Applications ==
The technology could be applied in:
* Electric vehicles
* Portable electronics
* Energy storage systems

== Problems Solved ==
The technology addresses:
* High cost of battery cells
* Limited specific energy
* Short cycle/calendar life

== Benefits ==
The technology offers:
* High specific energy
* Extended cycle/calendar life
* Cost reduction in battery cells

== Potential Commercial Applications ==
A potential commercial application for this technology could be:
* Advanced battery manufacturing for electric vehicles

== Possible Prior Art ==
There is no known prior art for this specific combination of ionically conducting solid-electrolyte and electrode active material in a solid electric conductor.

== Unanswered Questions ==

=== How does the solid electric conductor perform under extreme temperatures? ===
The article does not mention the performance of the solid electric conductor in extreme temperature conditions.

=== What is the expected lifespan of the battery cells using this technology? ===
The article does not provide information on the expected lifespan of the battery cells utilizing this technology.


==Original Abstract Submitted==

Described herein is a solid electric conductor and methods of making and using the solid electric conductor. The solid electric conductor can include two discrete populations of particles intermixed. A first population of particles can include an ionically conducting solid-electrolyte, and a second population of particles can include an electrode active material. The compositions and methods described allow to achieve high specific energy, good cycle/calendar life, and low cobalt (Co) loading to reduce the cost of battery cells.



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