TUMint Energy Research

cropped-TUM_01_Logo_2022-332x108

Solid State Batteries – Next Generation of Energy Storage Technologies

Solid state battery research has made enormous progress in recent years, particularly in mobile applications. Novel solid-state batteries not only promise higher energy density and a longer service life, but also improved safety and environmental compatibility compared to conventional lithium-ion batteries. They can therefore play a key role in electromobility.

However, there are still some challenges, such as the search for high-performance and cost-efficient materials, the influence of interface effects within a device, and processability and economies of scale in battery production. Our research covers the entire process chain, from innovative material concepts and battery design to production processes on a specially designed pilot plant in Garching.  

Materials

In the research field Material Design, we focus on material synthesis and scaling up synthesis processes. We conduct research on the development of novel ion-conducting materials, up to the targeted design of new material systems, such as the production of hybrid materials via electrospinning. We deliberately do not limit ourselves to a single class of materials but research across various material classes.

Single Cells and Analytics

In the research field Single Cells and Analytics our focus is on the development of analytical methods for battery cells, the production of sulfide electrolyte layers on a lab scale, and the scaling up of these processes. We develop and optimize specially adapted hardware to test the developed cells for its physical and electrochemical properties. Meanwhile a wide selection of analytical methods and the extensive expertise of our analytics team are available for our research on solid state batteries.

Production

In the research field Production we transfer the findings gained in lab scale experiments with sulfide electrolyte layers to the large-scale production processes. Our researchers test all relevant process steps, verifying and qualifying the materials for applicability in roll-to-roll printing. In collaboration with equipment manufacturers, prototype facilities for coating and calendaring the components have been developed and installed on campus.

Simulation Cluster

In the research field Simulation we develop novel simulation models to enable reliable predictions of cell behavior for novel material designs or cell concepts. This theoretical work is intended to enhance our understanding of processes within a solid state cell and to improve the performance of novel batteries.

Materials

Chairs

Chair of Inorganic Chemistry with Focus on Novel Materials

Prof. Dr. Thomas Fässler
TUM

Professorship for Syntheses and Characterization of Innovative Materials

Prof. Dr. Tom Nilges
TUM

WACKER-Chair of Macromolecular Chemistry

Prof. Dr. Bernhard Rieger
TUM

Lehrstuhl für Elektrochemische Materialien (ECM)

Prof. Dr. Jennifer Rupp FRSC
TUM

Our Research Focus

Synthesis and Upscaling of Novel Li-ion Conductors

Jingwen Jiang
TUMint.Energy Research

Synthesis and Upscaling of Novel Li-ion Conductors

Samuel Merk
TUMint.Energy Research

Electrospinning of ion conductors for ASSBs

Elisabeth Springl
TUMint.Energy Research

tbd

Daniel Weindl
TUMint.Energy Research

Polyvinylphosphonate based solid polymer electrolytes - an extension to PEO based electrolytes

Philipp Pfändner
TUMint.Energy Research

Synthesis of a Single Ion-Conducting Polymer Electrolyte (SICPE)

Marina Wittig
TUMint.Energy Research

Material selection and design of solid-state batteries

Hana Gobena
TUMint.Energy Research

Lithium garnet development and advances for use in next-generation solid-state batteries

Jesse Hinricher
MIT / Externer Wissenschaftler

Single Cells and Analytics

Chairs

Chair of Technical Electrochemistry

Prof. Dr. Hubert Gasteiger
TUM

Lehrstuhl für Elektrochemische Materialien (ECM)

Prof. Dr. Jennifer Rupp FRSC
TUM

Our Research Focus

Impedance and gasing diagnostics of all-solid-state batteries

Moritz Bohn
TUMint.Energy Research

Industrialisation of solid-state batteries

Robin Schuster
TUM / External Scientist

Introducing hybrid cathodes: Enabling high voltage cathode active materials and low pressure operation of all solid state batteries

Marvin Mühlau
TUMint.Energy Research

Production and characterization of anode electrodes for solid-state lithium-ion batteries (lithium metal, lithium-free, microcrystalline silicon and other lithium alloys)

Gioele Conforto
TUMint.Energy Research

Development of machine learning methods for the synthesis of novel materials

Thorben Prein
TUMint.Energy Research

Electron microscopy and extended diagnostics

Chairs

Chair of Electron Microscopy with research emphasis on Energy Materials

Prof. Dr. Marc-Georg Willinger
TUM

Our Research Focus

Material characterization with electron microscopy

Dr. Cheng Sun
TUMint.Energy Research

Production

Chairs

iwb - Institute for Machine Tools and Industrial Management

Chair for Production Technology and Energy Storage Systems

Prof. Dr. Rüdiger Daub
TUM

Our Research Focus

Coating process in sulfide-based solid-state battery production

Elena Jaimez-Farnham
TUMint.Energy Research

Production Technology, Cell Design, and Cell Assembly for Solid-State Batteries

Lovis Wach
TUMint.Energy Research

Simulation Cluster

Chairs

Chair of Electrical Energy Storage Technology

Prof. Dr. Andreas Jossen
TUM

Institute for Computational Mechanics

Prof. Dr. Wolfgang Wall
TUM

Professorship for Physics of Energy Conversion and Storage

Prof. Dr. Aliaksandr Bandarenka
TUM

Our Research Focus

Physicochemical and thermal simulation of solid-state batteries

Maximilian Scheller
TUMint.Energy Research

Development of novel models for solid-state batteries on the continuum scale

Stephan Sinzig
TUMint.Energy Research

Modelling of elementary reactions in solid-state batteries

N.N.
TUMint.Energy Research