Technology

All-Solid-State
Lithium Battery


SAFE, DENSE, ROBUST & AFFORDABLE

Our all-solid-state batteries (ASSB) are denser, more robust, less expensive to produce,  and safer than lithium-ion batteries on the market today. Our ASSB is 2 times the energy density of lithium ion batteries in the same size and weight package. Our ASSB withstands higher and lower voltages than lithium-ion batteries and is designed for significantly lower self-discharge. Due to our unique, proprietary manufacturing process, the cost to manufacture our ASSB is 32% that of the current industry leaders. Our ASSB can operate at both high and low temperatures, making it intrinsically safer than lithium-ion batteries.


JES All-Solid-State Lithium Battery

A glass electrolyte separator is the key to the advancement of all-solid-state lithium metal batteries. JES has developed and patented a hybrid oxy-sulfide glass electrolyte that has high ionic conductivity, suppresses lithium dendrites and is stable in contact with lithium metal anode and metal oxide cathode materials. It has demonstrated extended cycling capabilities, showing no signs of dendritic shorts or significant degradation in performance. JES’s glass electrolyte separator is stable up to 6.5V enabling the use of current and future high voltage cathode materials.

JES’s glass electrolyte separator penetrates deep inside the cathode structure to create cohesive intimate contact with the active cathode material. This type of infiltration allows for permanent long-life continuity throughout the cathode. Our cells do not rely upon pressed point contacts, liquids or gels unlike other solid-state battery companies.


JES
ALL-SOLID-STATE LITHIUM BATTERY

The Future of Energy Storage
JES All-Solid-State Lithium Battery

CONFERENCE PRESENTATIONS

These ‘Deeper Dives’ Demonstrate the Posters We Present at the Conferences We Attend

247TH ELECTROCHEMICAL SOCIETY (ECS) MEETING • MAY 2025

GET A DEEPER DIVE INTO OUR
GRAPHITE BASED ANODES FOR SAFE,
FAST-CHARGING, AND LONG-LASTING
SOLID STATE BATTERIES.

Review the Introduction, Experimental, Conclusion and Outlook as well as learn more about the Characterization (SEM, TGA, XRD, Raman), and Electrochemical Evaluation, including Cyclic Voltammetry (Half Cell), Galvanostatic Intermittent Titration Technique (Half Cell), and Constant Current Charge and Discharge (Full Cell).

View / Download Graphite-Based Anodes
View / Download Graphite-Based Anodes

INTERNATIONAL BATTERY SEMINAR • MARCH 2025

DIVE DEEP INTO OUR
TRUE ALL-SOLID-STATE BATTERY (TASSB)
BASED ON GLASS ELECTROLYTE

Discover our Mission, Approach, & Results as well as learn about our JES Oxy-Sulfide Glass Electrolyte Full Cell Recycling, and the CV Comparison of JES Oxy-Sulfide Glass Vs Li6PS5ClLi | Electrolyte | SS.

View / Download TASSB
View / Download TASSB

INTERNATIONAL BATTERY SEMINAR & EXHIBIT • MARCH 2023

UNDERSTAND WHY OUR
ALL-SOLID-STATE LITHIUM BATTERY
BASED ON GLASS ELECTROLYTE
IN AN IMPROVEMENT

Discover the JES Mission, Approach, Results, significant cost reduction, as well as learn about our Oxide Glass Based Cell Step Cycling, and about our Oxy-Sulfide Glass Cell at Room Temperature.

View Download Glass Electrolytes
View Download Glass Electrolytes

ADVANCED AUTOMOTIVE BATTERY CONFERENCE • DECEMBER 2022

REVIEW THE TECHNOLOGY OF OUR
ALL-SOLID-STATE LITHIUM BATTERY
BASED ON GLASS ELECTROLYTE

Discover our Objective, Approach, Cost Reductions as well as learn about our Oxide Glass Based Cell Performance, and about Oxy-Sulfide Electrolyte Glass.

View / Download Solid-State Dendrite Electrolyte
View / Download Solid-State Dendrite Electrolyte
View / Download Solid-State Dendrite Suppressing Glass-Ceramic Electrolyte for Enabling Lithium Metal Anode
View / Download Solid-State Dendrite Suppressing Glass-Ceramic Electrolyte for Enabling Lithium Metal Anode

Adrian Grant, Lazbourne Allie, Devon Lyman, Kenechukwu Nwabufoh, Eleston Maxie, Yardlyne Smalley, David Johnson,and Lonnie Johnson.
© 2021 The Electrochemical Society (“ECS”).

Published on behalf of ECS by IOP Publishing Limited.

JOURNAL OF THE ELECTROCHEMICAL SOCIETY • FEBRUARY 2021

Solid-State Dendrite Suppressing Glass-Ceramic Electrolyte for Enabling Lithium Metal Anode

Lithium metal anodes have long been sought to be incorporated into lithium-ion batteries (LiB) in order to increase the energy density and consequently lower the cost of LiB technologies. However, Lithium metal is highly reactive and unstable with many known electrolytes. For those electrolytes stable with Lithium, there is also a risk of Lithium dendrite formation during cycling which will lead to an eventual short and catastrophic failure of the battery.

In this work, we’ve developed a patented proprietary ternary glass-ceramic system, Li2CO3−Li3BO3−Li2SO4 (Patent number: US10566611B2), via molten synthesis that is stable with Lithium. This can suppress dendrite growth during cycling. The bulk crystalline system exhibits lower conductivity of 2 × 10−6 s cm−1 at room temperature. Using rapid quenching of the system to achieve a semi-crystalline or glass phase improves the conductivity to a modest 2 × 10−5 s cm−1 at room temperature. This method allows ultra-thin deposition of the solid electrolyte to reduce its area-specific resistance (ASR) contribution to below 30 Ω·cm2. Lithium symmetric half-cell cycling of a glass sheet shows stable, dendrite-free cycling for at least 350 cycles.

These characteristics make this material ideal to use as a solid-state electrolyte (SSE) separator in full cell testing.

READ THE FULL ARTICLE

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APPLICATIONS

Because our solution is stable and performs well in extreme environments, the JES battery technology are well suited for:

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Transportation


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Energy & Utilities


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Consumer Electronics


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Manufacturing


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Business


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Robotics and AI


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Medicine & Healthcare


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Production


Let’s start a discussion.


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