As we transition toward cleaner and more circular energy systems, the materials we use—and how we use them—are becoming just as important as the energy sources themselves. My work explores how materials enable and shape the future of energy, especially when it comes to storing and converting renewable resources efficiently and sustainably.

From converting agricultural waste into hydrogen fuel to producing carbon-rich materials like biochar for energy and environmental applications, I’m interested in how thermochemical processes and smart material design can close the loop between waste and value. Biomass, for example, can be transformed not only into clean fuel, but also into functional materials that capture pollutants, store energy, or enhance soil.

A key part of this work is understanding how material structure, composition, and surface chemistry influence performance in real-world conditions. Whether it’s identifying the right catalysts for hydrogen production, or tuning the porosity and conductivity of bio-based materials for energy storage, the goal is the same: design materials that are efficient, scalable, and sustainable.

This research sits at the crossroads of green chemistry, materials engineering, and systems thinking—with the aim of making our energy solutions not only smarter, but also more equitable and regenerative.