University: Université Grenoble Alpes
Country: France
Deadline: 2026-08-31
Fields: Materials Science, Electrochemistry, Physics, Mechanical Engineering, Energy Storage
Are you passionate about advancing the future of sustainable energy storage and eager to develop expertise at the intersection of electrochemistry, advanced imaging, and materials science? If your career ambitions include contributing to next-generation battery technologies using state-of-the-art research tools, this opportunity at Université Grenoble Alpes could be the perfect next step.
About the University or Research Institute
Université Grenoble Alpes (UGA) stands as one of France’s premier research universities, renowned for its commitment to scientific excellence and innovation. Located in the vibrant city of Grenoble—a hub for science and technology at the foot of the French Alps—UGA offers a dynamic academic environment with close ties to leading research institutes and industries. The university is internationally recognized for its multidisciplinary approach, particularly in materials science, physics, engineering, and energy-related research. The Laboratory of Electrochemistry and Physical-Chemistry of Materials and Interfaces (LEPMI), where this PhD position is based, is a leader in electrochemical research and advanced materials characterization, providing students with access to cutting-edge facilities and a collaborative scientific community.
France itself is an exceptional destination for doctoral studies, offering a high quality of life, rich cultural experiences, and strong support for international researchers. Grenoble, in particular, is celebrated for its innovative ecosystem, proximity to world-class research centers such as the Institut Laue-Langevin (ILL) and the European Synchrotron Radiation Facility (ESRF), and its breathtaking natural surroundings.
Research Topic and Significance
The urgency for safer, higher-capacity, and more sustainable energy storage solutions is driving global research into next-generation lithium-based solid-state batteries (LiSSBs). These batteries are at the forefront of innovation, promising to revolutionize sectors ranging from electric vehicles to grid storage by offering improved safety, energy density, and longevity compared to conventional battery technologies.
Despite their promise, significant scientific and engineering challenges remain, particularly in understanding the operational and failure mechanisms of multi-stack LiSSB pouch cells. This research project aims to bridge the knowledge gap between academic investigations of single-stack architectures and the emerging industrial focus on multi-stack designs. By leveraging advanced X-ray and neutron laminography, the project seeks to visualize and quantify damage and failure modes within battery cells—paving the way for more reliable and efficient energy storage devices.
This work is not only scientifically significant but also has profound societal implications, contributing to the global transition towards clean energy and electrification.
Project Details
The successful PhD candidate will join the MIEL team (Materials, Interfaces, Electrochemistry) at LEPMI, situated on the Grenoble campus of Université Grenoble Alpes. The research will be co-supervised by Didier Devaux (LEPMI) and Lukas Helfen, with additional collaboration from leading experts at ILL (neutron imaging), ESRF and KIT (X-ray imaging), ETH Zurich (mechanics and instrumentation), and Institut Néel (advanced image analysis).
The project is structured around two core objectives:
– Design, assembly, and optimization of both single- and multi-stack LiSSBs tailored for advanced imaging techniques.
– Application of in-situ laminography (using neutrons and synchrotron X-rays) to visualize and analyze the failure mechanisms and performance-limiting factors in these batteries.
The consortium brings together all necessary technical tools and expertise, offering a unique opportunity to work at the interface of academia and industry. The project builds on successful proof-of-concept experiments at leading beamlines (ILL NeXT and ESRF ID19), ensuring a robust foundation for innovative research.
Candidate Profile
This PhD position is ideally suited for candidates with a strong background in:
– Electrochemistry and physico-chemical characterizations (mandatory).
– Experience or keen interest in X-ray or neutron imaging (highly valued).
– Materials science, physics, mechanical engineering, or related fields.
– Analytical thinking, problem-solving skills, and a passion for interdisciplinary research.
– Motivation to work in a collaborative, international environment at the forefront of battery technology research.
A proactive mindset, adaptability, and curiosity about advanced imaging and energy storage technologies will be key assets for success in this role.
Application Process
Application Deadline: 2026-08-31 (23:59)
To apply, candidates should submit their application via the official portal:
https://doctorat.campusfrance.org/CF202648518
Alternatively, please refer to the official advertisement for application details.
This position was advertised by Professor Didier Devaux on LinkedIn. For further information and updates, please visit the original LinkedIn post:
https://www.linkedin.com/posts/didierdevaux_phd-position-at-lepmi-lab-ugcPost-7457355818846281728-2Ccl
Conclusion
This fully funded PhD position at Université Grenoble Alpes offers an exceptional opportunity to contribute to cutting-edge research in next-generation battery devices, working alongside leading experts in a world-class scientific environment. If you are eager to make a meaningful impact on the future of energy storage and develop advanced skills in electrochemistry, imaging, and materials science, do not hesitate to apply.
Stay tuned for similar opportunities and continue exploring your academic and professional growth in the field of energy and materials research.
Questions & Answers
Question: What is laminography, and why is it important for this project?
Laminography is an advanced imaging technique, similar to tomography, but optimized for flat, layered samples such as pouch cells. It allows for high-quality, non-invasive visualization of internal structures and damage in solid-state batteries, making it crucial for analyzing failure mechanisms in this research.
Question: What benefits does studying at Université Grenoble Alpes offer international PhD students?
Université Grenoble Alpes provides access to world-class research facilities, a vibrant international community, and strong support for doctoral candidates. The university’s location in Grenoble offers proximity to major research centers and a high quality of life in a scenic, innovation-driven city.
Question: What career prospects can graduates of this program expect?
Graduates will gain expertise in electrochemistry, advanced imaging, and battery technology—skills highly sought after in academia, research institutes, and the rapidly growing energy storage industry worldwide.
Question: Is prior experience with X-ray or neutron imaging mandatory?
While experience with X-ray or neutron imaging is highly valued, it is not strictly mandatory. However, a strong background in electrochemistry and physico-chemical characterizations is essential for this position.
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