Capture meets conversion.
Multifunctional materials integrate CO₂ capture and conversion. We study performance and durability over repeated cycles.
CHEMISTRY, MATERIALS & ENVIRONMENTAL INNOVATION
Exploring how chemistry, materials, and systems can reshape carbon, energy, and resource management.
Explore our research ↗02 / RESEARCH FRONTIERS
Multifunctional materials integrate CO₂ capture and conversion. We study performance and durability over repeated cycles.
Electrified reactors and photothermal catalysts bring electricity and sunlight directly into chemical processes.
Perovskites, exsolved nanoparticles, and alloys reveal how evolving interfaces govern catalytic performance.
Catalytic and thermochemical pathways transform biomass and discarded polymers into useful materials and chemicals.
LATEST NEWS · NOVEMBER 2026
Our newly accepted article, “Engineering Metal-Support Interfaces for Tunable CO₂ Hydrogenation Pathways over Exsolved Ni/CaTiO₃/CaO,” examines how metal–support interfaces influence CO₂ hydrogenation pathways.
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Leslie presented in the Exsolution Materials track at MATSUS Fall 2026, sharing our work on dynamic materials for integrated CO₂ capture and conversion.
We thank Samsung and the NSF CBET Catalysis program for supporting this work.
Explore selected talks ↗SELECTED HIGHLIGHTS
Collaborative work on photothermal materials and CO₂ capture and release.
Read the publication ↗SCIENCE FRIDAYLeslie joins Ira Flatow to discuss water filters made from agricultural waste.
Listen to the conversation ↗USC VITERBISairaj Patil’s Joule-heated reactor research among USC graduate research winners.
Read the story ↗CONNECT
Research collaborations.
Speaking invitations.
Graduate opportunities.