
Illumion
Illumion revolutionizes how we measure energy storage in operating batteries.
Date | Investors | Amount | Round |
---|---|---|---|
- | investor | €0.0 | round |
investor | €0.0 | round | |
investor | €0.0 | round | |
investor | €0.0 | round | |
* | £2.1m | Seed | |
Total Funding | 000k |
Related Content
Illumion.io is a groundbreaking startup that operates in the energy storage and battery development sector. The company has developed a unique lab-based technique known as charge photometry, which allows researchers to visualize energy storage processes in real time and at sub-micrometer scales. This technology was developed in the research groups of Prof. Dame Grey at the University of Cambridge and is set to revolutionize the way we measure energy storage in operating batteries.
Illumion.io's technology is applicable to a wide range of clients, including researchers, battery developers, and manufacturers in the energy storage industry. The company's business model is based on providing this innovative technology to the scientific community, thereby aiding in the development and research of next-generation battery materials.
The company's revenue is likely generated through the sale or licensing of their technology, as well as through potential partnerships with battery manufacturers and research institutions. The technology has the potential to provide unprecedented insights into the phase transition mechanisms, the build-up of charge heterogeneity, and the performance degradation of individual active particles during realistic electrochemical cycling. This makes charge photometry a universal analysis tool for monitoring battery materials as they operate in their native cell environment.
In summary, Illumion.io is a pioneering startup that is set to disrupt the energy storage industry with its innovative charge photometry technology.
Keywords: Energy Storage, Battery Development, Charge Photometry, Real-Time Visualization, Sub-Micrometer Scales, Battery Materials, Phase Transition Mechanisms, Charge Heterogeneity, Performance Degradation, Electrochemical Cycling.