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NM, FP, and future generations​

Nickel manganese cobalt (NM)-graphite and lithium iron phosphate (FP)-graphite are the two main solutions we are currently focusing on. To optimize these systems, we are actively seeking improvements and investigating the best possible combinations of components. We are also targeting certain identified technological hurdles, including those surrounding all-solid-state materials like lithium metal and lithium sulfur. Identifying high-performance technologies that do not require critical materials is another one of our research focuses. And, of course, the solutions we develop are designed with optimal safety in mind.​

Performance and environmental considerations

Energy density, power density, service life, and vehicle range are important. However, reducing critical materials and costs are also top concerns today. We consider how to limit the environmental impacts of Li-ion batteries as we strive to improve their energy and power densities. Our research focuses on improving our understanding of the multiple factors that influence both operating safety and service life. Our efforts to improve performance go together with our ability to guarantee end-to-end sustainability. We have formed partnerships with companies like Solvay Umicore, Saft, ACC, Orano, and Stellantis on these topics.

​System optimization

We possess three decades of experience researching battery chemistry and have built battery partnerships with academic research labs and manufacturers to bring a holistic, system-level approach to the development of new chemistries for electric transportation and other market needs. We believe that the right solution starts with the right battery. Our battery system design activities focus on selecting the best cells in terms of chemistry, format, and size. We also look at mechanical, electrical, and thermal integration and battery management systems (BMS) appropriate to the target use cases. Battery management electronics now have a major impact on battery lifespans. We are developing sensors and electronics to measure batteries’ state of charge and health in real time. These solutions are also designed to prevent dangerous electrochemical reactions and facilitate maintenance.

New generations of batteries

All-solid-state batteries are one of the avenues we are exploring for a new generation of safer, higher-performance batteries. Our research spans solvent-free electrode production processes, hybrid and solid electrolytes, and higher-capacity lithium-metal negative electrodes.

Our strength: a holistic, system-level approach to batteries. When it comes to battery research, each component can be addressed by specific solutions that can make a big difference individually. However, we know that the whole is much greater than the sum of its parts. Our big-picture thinking positions us to support our partners at every stage in the process, leveraging the right skills and knowledge to achieve our shared objectives.​