The recent advances in improving energy storage materials can be partially attributed to the mechanistic understanding of spatial and temporal phenomena at
relevant lengths and time scales. Electrochemical storage systems comprise multiple components and are intrinsically out-of-equilibrium, necessitating an indepth
understanding of the reactions within and between individual parts under operating conditions. In the past decade, progress in operando characterization
led to a paradigm shift in our understanding of mechanical and electrochemical processes during intercalation and charge transport. Nevertheless, the
complexity of the multi-component electrochemical storage systems requires further developments, particularly a concerted effort in multimodal
characterization.
This symposium will highlight the most recent developments in the operando characterization of electrochemical systems, including x-ray characterization,
electron microscopy, nuclear magnetic resonance, and electron paramagnetic resonance. The symposium will cover various scientific topics, including
intercalation, ionic diffusion, reduction-oxidation reactions, and structural rearrangements in materials for lithium-ion energy storage and beyond. The
symposium aims to provide a discussion platform and to facilitate a combination of multiple operando techniques for the future multimodal characterization of
electrochemical systems.
Symposium Organizers
Raphaële Clément
University of California, Santa Barbara
Materials
USA
Feng Lin
Virginia Tech
Chemistry
USA
Yijin Liu
Stanford University
Stanford Synchrotron Radiation Lightsource
USA
Andrej Singer
Cornell University
Materials Science and Engineering
USA