Speaker
Description
Synchrotron radiation techniques, particularly X-ray spectroscopy, have become essential tools in electrochemical research, enabling in situ and operando studies of solid/liquid (electrode/electrolyte) interfaces. Unlike conventional methods, synchrotron-based techniques provide element-specific, spatially resolved insights into electronic states and dynamic transformations under electrochemical conditions. As the design of nanostructured electrocatalysts advances, understanding electrochemical mechanisms becomes crucial for optimizing energy conversion and storage technologies, including fuel cells, batteries, and water-splitting devices. The growing capabilities of synchrotron facilities like SOLARIS are expected to provide deeper insights into complex electrochemical systems and accelerate the development of next-generation energy materials.
The SOLARIS National Synchrotron Research Centre in Kraków, Poland, is a third-generation light source operating at 1.5 GeV with a maximum current of 500 mA and a 15-hour lifetime. Currently, seven beamlines provide synchrotron light from VUV to hard X-rays, supporting various photon- and electron-based techniques. SOLARIS is expanding its capabilities for in situ and operando electrochemical studies, incorporating commercial solutions and developing custom electrochemical cells. We highlight current electrochemistry-related research and future advancements that will enhance experimental capabilities, enabling a deeper understanding of materials’ physicochemical properties and their structural and electronic transformations, further establishing SOLARIS as a hub for cutting-edge electrochemical research.
