Bettina Lotsch’s research integrates solid-state, molecular, and nanochemistry to enable the rational design of new multifunctional materials for energy conversion and storage. Current interests focus on developing reticular framework materials for (photo)electrocatalysis, solid electrolytes for next-generation batteries, and pioneering optoionic concepts such as “dark” photocatalysis, photomemristive sensors, and solar batteries.
Highlights:
Karsten Reuter’s research lies at the interface of physics and chemistry with computing sciences and artificial intelligence. He develops and employs predictive-quality multiscale models, advanced data science techniques and machine learning to understand and tailor energy conversion devices from the molecular level up to the entire reactor or battery.
Highlights:
Jennifer Rupp’s research centers on solid-state electrochemical materials and devices, addressing all aspects from material design and processing techniques up to novel device prototypes, their operation and characteristics. Device types addressed include batteries, fuel cells, lithionic, opto-ionic and strain-modulated sensors, energy and computing devices, sustainable waste or waste heat operated thermal and redox flow batteries, and bio-fuel cells.
Highlights:
Reflecting the complementary expertise of the three lead scientists, the SolBat team integrates outstanding know-how and skill sets ranging from computational and AI-based modeling and simulation to materials synthesis, characterization and processing. The scientists located at the three home affiliations of the lead scientists will be complemented by dedicated experts on automation, high-throughput experimentation, and device design at the Campus Garching to establish the self-driving AI laboratory.
Identification of photo-enhanced ionic conductivity across grain boundaries as novel optoionic effect in polycrystalline ceramics.
T. Defferriere, D. Klotz, J.C. Gonzalez-Rosillo, J.L.M. Rupp, H.L. Tuller
Nature Materials, 21, 438–444 (2022)
First realization of an integrated, fully earth-abundant solar battery which leads to energy improvements of 94% under illumination.
A. Gouder, F. Podjaski, A. Jiménez-Solano, J. Kröger, Y. Wang, B.V. Lotsch
Energy Environ. Sci. 16, 1520–1530 (2023)
Concepts for future self-driving AI laboratories and the role of the human scientist in them.
C. Scheurer, K. Reuter
Nature Catalysis
If you want to know more about the team, individual research, or have a request for collaboration, feel free to contact one of us: