Without decisive action, energy-related emissions of CO2 will more than double by 2050, and increased fossil energy demand will heighten concerns over the security of supplies. An energy revolution must change the current path, and low-carbon energy technologies will have a crucial role to play.
Our research program focuses on advanced materials characterization, materials chemistry, and materials processing science, with the specific goal of developing scalable technologies related to energy storage and electrocatalysis to produce renewable fuels. We accomplish this by understanding the fundamentals that govern materials’ behavior through multi-scale characterization.
Some areas of interest include: functional ceramics, solid-state ionics, materials design and processing/manufacturing, energy storage, electrocatalysis, and advanced materials characterization.
Functional Ceramics
We work on the development of functional ceramics with tailored microstructure, transport and mechanical properties to meet the demands of advanced technological applications through materials design and processing. We aim to elucidate the relationships between composition, microstructure, and performance, enabling the creation of ceramics with desirable characteristics for applications in energy storage, electrocatalysis and hydrogen storage and conversion.
Solid-State Ionics
Our research in solid-state ionics explores the development and optimization of materials that enable efficient ionic transport for a range of energy applications. We focus on designing and processing solid electrolytes and mixed ionic-electronic conductors with enhanced conductivity, stability, and mechanical properties. By leveraging advanced characterization techniques we aim to uncover the fundamental mechanisms of ion transport and interfacial interactions within these materials. Our work seeks to address key challenges in solid-state batteries, fuel cells, and other electrochemical devices, ultimately contributing to safer, more efficient, and high-performance energy storage and conversion technologies.
Energy Storage
Our research focuses on advancing energy storage technologies, particularly through the development of next-generation batteries. We explore innovative materials design and processing strategies to enhance their performance and longevity. By utilizing cutting-edge materials characterization techniques, we aim to understand and optimize the properties and behaviors of novel materials at various scales, providing insights into electrochemical reactions, degradation mechanisms, and structural dynamics. Our interdisciplinary approach enables us to contribute to sustainable energy solutions through the development of efficient, durable, and high-performance energy storage systems.
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