What we do and why:

Using methods of in-situ and operando electron microscopy, we are able to move beyond the analysis of thermodynamically isolated systems in vacuum and thus, to observe how materials behave under the influence of a defined physical or chemical stimuli. We relate structural and chemical dynamics with the emergence of catalytic function, and study processes that are relevant for energy storage and conversion. Since atomistic processes can lead to complex dynamics at larger scale, we combine local observation by in-situ transmission electron microscopy with in-situ scanning electron microscopy. 

This multiscale approach enables context embedded studies of collective behavior, such as the formation of dissipative structures, or oscillatory red-ox dynamics that can only be observed under reaction conditions. 

Sometimes, what happens at the tiniest scale can have big effects on how materials behave overall.