Nanoanalysis of Electrochemical Processes

About

Understanding the mechanisms that alter nanostructures during electrochemical processes is crucial to develop electrolyzer and fuel cell technology. With this knowledge it is possible to enhance efficiency, resilience, and durability of the devices. Scaling those up allows to efficiently use hydrogen technology to store renewable energy.

To do so, we employ scale-bridging, correlative analysis methods covering degradation studies, modeling, and operando liquid phase electron microscopy.

Research Topics

To investigate the processes related to formation and alteration of the nanostructures involved, we combine a toolbox of methods that include

  • synthesis of new catalytic materials
  • development of accelerated stress test protocols
  • nanostructural analysis methods via operando electron microscopy
  • electro-structural and kinetic electrochemical simulations
  • electron beam-induced effects in liquid phase electron microscopy
  • quantitative liquid phase electron microscopy

Contact

Dr.-Ing. Andreas Hutzler

IET-2

Building HIERN-Cauerstr / Room 4009

+49 9131-12538174

E-Mail
Transmission Electron Microscopy Lab
H2Giga - StacIE | Stack Scale-Up: Industrialization PEM Electrolysis

The project StacIE aims to scale up the stack production on the level of cell components by development of industrial processes, improvement of profitability of cell design by reducing complexity and optimizing manufacturing technique of the porous transport layer (PTL) and bipolar plate (BPP). For PTL and BPP alternative materials and substrate coating methods are identified and developed further.

More
Electronic devices based on the 2D material black phosphorus - layer-dependent properties

team members

Publications

Projects in our team

  • DFG 2026: Research Training Group 3103 - CorMic: Correlative Materials Microscopy - From nanostructured functional films to hierarchicalfunctional materials
  • BMWE 2025: POREScale: Scale-up of pore-optimized catalysts and catalyst layers for PEM fuel cells
  • BMWE 2025: KernKat: Core-shell catalyst systems for low precious metal loading, high conversion efficiencies, and long service life in water electrolysis using an acidic polymer electrolyte membrane
  • BMFTR 2021: H2Giga - StacIE: Stack Scale-Up: Industrialization PEM Electrolysis
  • DFG 2021: 454726051 - HU 2827/2-1: Electronic devices based on the 2D material black phosphorus - layer-dependent properties
  • DFG 2021: EAM starting grant 2021: Modeling Electron-Beam Induced Radiolysis in Liquid-Phase Electron Microscopy
Last Modified: 30.03.2026