
("Gelion", the "Company" or the "Group")
Gelion Introduces Sulfur CAM as a "Drop-In" Solution to Lithium-Ion and Sodium-Ion Battery Infrastructure
Key Technical Achievements
· Function in mature cell architectures: Demonstrated compatibility with proven electrolyte, separator, and anode systems that dominate current global battery manufacturing (gigawatt‑hours per annum output).
· Drop-in potential with established LIB and SIB manufacturing: Potential for integration with established materials supply chains and manufacturing processes associated with the full spectrum of components used in GWh p.a. battery manufacture: anode, electrolyte, separator, cathode, casing.
· Unlocks standard LIB & SIB electrolyte use: Ability to use the same mature and cost‑efficient electrolytes trusted by battery manufacturers worldwide. Overcomes the industry‑wide incompatibility between conventional sulfur cathodes and carbonate‑solvent/hexafluorophosphate salt electrolytes. Compatibility with these established electrolyte systems is an essential requirement for an authentic drop-in supplement to established GWh p.a. manufacture and access to the associated market that this manufacture supplies (EV, ESS, personal devices, etc.).
Building upon successful transfer of the technology from the
Specifically, Gelion has paired its Sulfur CAM with electrolyte systems based on carbonate-solvents and hexafluorophosphate salts which are ubiquitous in GWh p.a. LIB and SIB manufacture. Electrolytes based on these solvents and salts are advantaged in their ability to form passivating layers on the graphitic and hard-carbon anodes that underpin LIBs and SIBs, respectively.
Specifics of the tested cell architectures are listed in the table below:
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LIB architecture |
SIB architecture |
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Cathode |
Gelion Sulfur CAM1 |
Gelion Sulfur CAM1 |
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Electrolyte |
Carbonate Solvents, Lithium Hexafluorophosphate Salt |
Carbonate Solvents, Sodium hexafluorophosphate Salt |
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Separator |
Polyolefin |
Polyolefin |
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Anode |
Graphite |
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1 The Gelion CAM is metalated (lithiated or sodiated) electrochemically in a
Why This Breakthrough Matters
Conventional sulfur cathodes cannot be used with carbonate-solvents and hexafluorophosphate salts due to chemical incompatibilities that rapidly degrade components of both the electrolyte and sulfur cathode. Gelion's Sulfur CAM disconnects this incompatibility, allows the Company to revolutionise rather than replace gigafactory cell architectures. This compatability is a further advantage to the excellent power and longevity across lithium sulfur and sodium sulfur cathode technologies that have been previously announced by Gelion (
Gelion will update on activities which focus on continued refinement of their Sulfur CAM for specific application with LIB electrolytes and anodes and SIB electrolytes and anodes, in addition to other commercial targets such as cathodes with industrially relevant areal capacity, and prototype cell development.
CONTACTS
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via Alma
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+44 (0) 20 7409 3494 |
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+44 (0) 20 3179 5300 |
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Allenby Capital Limited (Joint Broker) Jos Pinnington / Lauren Wright (Sales and Corporate Broking) Alex Brearley / Ashur Joseph (Corporate Finance) |
+44 (0) 20 3328 5656 |
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+44 (0) 20 3405 0205 |
Market Abuse Regulation
This announcement contains inside information for the purposes of Article 7 of EU Regulation No. 596/2014, which forms part of United Kingdom domestic law by virtue of the
About Gelion
Gelion ("gel: ion") is a global energy storage innovator, supporting the transition to a more sustainable economy by commercialising globally important next generation battery technologies: Sulfur based, Lithium-Sulfur (Li-S), Sodium-Sulfur (Na-S) and Zinc-based (Zn) hybrid cells to electrify mobile and stationary applications and battery recycling technology.
In addition, Gelion is also delivering commercial Battery Energy Storage Systems (BESS) projects through its Integration Solutions business.
Sulfur Batteries
Gelion's effort is directed at the potential for sulfur-based cathode active materials (CAMs) to deliver low-cost & sustainable batteries with compelling performance. In the case of Li-S batteries, the target is a high-performance light-weight battery for the EV and e-aviation market. In the case of Na-S batteries, the target is an ultra-low-cost advancement on batteries currently employed in the stationary storage and economy EV market. The company's overarching goal is to help make global transport, energy consumption and storage more sustainable.
Glossary
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Ah |
Ampere hours. A measure of capacity stored in the cell. The larger the number the higher the capacity. |
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mAh/g(S) |
The unit mAh/g(S) stands for milliampere-hours per gram of Sulfur (with S indicating "Sulfur"). It is a measure quantifying how many electrons (in mAh) can be stored per gram of Sulfur. |
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CAM |
Cathode active material |
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Energy density (Wh/kg) |
The ratio of energy stored per unit weight i.e. Watt-hours per kilogram. The higher the number the lighter the battery. |
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Pouch cell |
An industry standard format of a battery which comprises a flat pouch-shaped design with a multi-layered laminate structure. |
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Cycle life |
The number of full charge and discharge cycles a battery can complete before its capacity falls below a specified level, typically 80% of the original capacity. Higher cycle life indicates longer-lasting performance. |
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