Connecting Images with Electrochemistry
OUR APPROACH
We combine advanced optical microscopy with electrochemical measurements to directly visualize reactions at individual nanoparticles, bubbles, pores, and interfaces. This approach helps us understand how nanoscale structure and dynamics control electrocatalysis, material growth, critical-material separation, and environmental processes.
RESEARCH & LAB HIGHLIGHTS
OUR FUNDING
This project investigates how nanoscale pore geometry and mass transport control hydrogen production and carbon dioxide conversion, while advancing STEM education and workforce development
This project brings advanced nanoscale patterning and imaging capabilities to Mississippi, strengthening regional research, semiconductor workforce development, and nanotechnology education.
This project develops CLocK microscopy to track structural changes in individual nanoparticles during electrochemical reactions while advancing microscopy training and STEM outreach.
This project develops correlated optical and electrochemical tools for high-throughput screening of individual electrocatalysts while expanding advanced STEM training and outreach in Mississippi.
BOOK
An accessible introduction to the concepts, methods, and applications of single-entity electrochemistry for undergraduate and early-career researchers.
This project brings advanced nanoscale patterning and imaging capabilities to Mississippi, strengthening regional research, semiconductor workforce development, and nanotechnology education.
This project develops CLocK microscopy to track structural changes in individual nanoparticles during electrochemical reactions while advancing microscopy training and STEM outreach.
This project develops correlated optical and electrochemical tools for high-throughput screening of individual electrocatalysts while expanding advanced STEM training and outreach in Mississippi.