Technische Universität München
Professur für Digitale und automatisierte Katalyse (Prof. Stein)
Lichtenbergstr. 4
85748 Garching b. München
We utilize digital tools like data management, machine learning, and robotics to catalyze battery and catalysis research acceleration. We don't just discover and optimize materials, components, and processes but try to investigate non-linear effects originating from a materials-in-systems perspective, such as batteries and chemical reactors. Research in our group is predominantly experimental, emphasizing (hardware and software) engineering in chemical engineering. We also research on accelerating the very way how research is executed and deploy Materials Acceleration Platforms. Currently, we investigate aqueous and solid-state batteries, oxidation, and hydrogenation catalysis, as well as data generation for foundational models in the natural sciences (see research overview).
Batteries and Supercaps
Abstract: Accelerated formation protocols that utilize pulsed charging offer an unprecedented wealth of electrochemical data. Herein, methods are presented to extract diagnostic data relating to pseudodiffusion…
Advanced Science
Abstract: Accurate prediction of battery behavior under different dynamic operating conditions is critical for both fundamental research and practical applications. However, the diversity of emerging materials…
ChemPhotoChem
Abstract: “Blue titania” is widely applied in photocatalysis, but comparative studies on the influence of the TiO2 phase on color evolution and stability are rare. Here, this knowledge gap is closed by…
Advanced Energy Materials
Abstract: High-performance batteries need accelerated discovery and optimization of new anode materials. Herein, we explore the Si─Ge─Sn ternary alloy system as a candidate fast-charging anode materials system…
Advanced Energy Materials
Abstract: High-performance batteries need accelerated discovery and optimization of new anode materials. Herein, we explore the Si─Ge─Sn ternary alloy system as a candidate fast-charging anode materials system…
Energy and Fuels
Abstract: Efforts to enhance the state of health (SOH) estimation for lithium-ion batteries have increasingly focused on diverse machine learning methods, especially with the promising artificial intelligence…
Applied Energy
Abstract: The growing market for electric vehicles and portable electronics requires the reliability assessment of Li-ion batteries, especially in terms of nonlinear capacity degradation. For this purpose, a…
Digital Discovery
Abstract: Discoveries of novel electrolyte-electrode combinations require comprehensive structure-property-interface correlations. Herein, we present autonomous millimeter scale high-throughput battery research…
npj Computational Materials
Abstract: Predicting and monitoring battery life early and across chemistries is a significant challenge due to the plethora of degradation paths, form factors, and electrochemical testing protocols. Existing…
ACS Applied Materials and Interfaces
Abstract: Layered oxides constitute one of the most promising cathode materials classes for large-scale sodium-ion batteries because of their high specific capacity, scalable synthesis, and low cost. However,…
| Titel | Termine | Dauer | Art | Vortragende/r (Mitwirkende/r) |
|---|---|---|---|---|
| Hochdurchsatzmethoden und -verfahren (NAT0125) |
|
4 | VI | |
| Methods of Catalysis (CH3242a) |
|
2 | VO | |
| Methods of Catalysis, Seminar (CH3242b) |
|
1 | SE | |
| Seminar und Aktuelle Themen in der Digitalen Katalyse (NAT0126) |
|
2 | SE | |
| Theorie und Praxis zum Datenmanagement in der Chemie (NAT0127) |
|
2 | VI |