Samsung
Research supported by the Samsung Advanced Institute of Technology connects catalyst and reactor development with electrothermal carbon capture and conversion.
Explore the research connection ↗COLLABORATIONS & GLOBAL REACH
Connecting expertise across universities, industry, national laboratories, and environmental practice.
CONNECTED RESEARCH & ENGAGEMENT
Carbon conversion and chemical process innovation.
Research supported by the Samsung Advanced Institute of Technology connects catalyst and reactor development with electrothermal carbon capture and conversion.
Explore the research connection ↗Collaboration through the Pratt & Whitney Institute for Collaborative Engineering investigates pathways from captured carbon dioxide to jet fuel.
Learn about PWICE ↗Collaborative work on integrated CO₂ capture and conversion connects multifunctional materials with methanation and reverse water–gas shift chemistry.
Read a collaborative publication ↗CONNECTED RESEARCH & ENGAGEMENT
Photothermal materials and solar-powered separations.
Collaboration with Mita Dasog’s group connects plasmonic titanium nitride materials with solar-powered CO₂ capture and release.
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Materials discovery, catalytic science, and shared research expertise.
Collaboration with researchers at the Stanford Synchrotron Radiation Lightsource uses in situ X-ray absorption spectroscopy to understand how catalytic materials evolve.
Redox-driven Ni exsolution · 2026 ↗Dynamic tracking of NiFe smart catalysts · 2023 ↗Collaborative research with Eranda Nikolla and colleagues examines oxide materials and their structural chemistry for energy applications within UNCAGE-ME.
Read a collaborative publication ↗Participation in the Georgia Tech-led Energy Frontier Research Center connects the group with a multidisciplinary network investigating materials evolution under challenging energy-relevant conditions.
Explore center publications ↗Collaboration with Israel E. Wachs examines perovskite oxide transformations, nanoparticle exsolution, and the effects of sulfur dioxide on materials for energy applications.
Read the collaborative publication · 2025 ↗William J. Bowman
Collaborative work with William J. Bowman explores nanostructure formation through exsolution and self-assembly in complex concentrated oxides.
Nanostructure exsolution & self-assembly · 2024 ↗Grain boundary cation segregation · 2024 ↗Xiaoqing Pan
Shared research on exsolved alloy and heterostructure nanoparticles for dry methane reforming, with collaborative publications spanning 2020–2022.
Alloy & heterostructure nanoparticles · 2022 ↗Ni–Fe–Co nanoparticle exsolution · 2021 ↗Ni–Fe alloy stoichiometry · 2020 ↗CONNECTED RESEARCH & ENGAGEMENT
A home for research, education, and environmental engagement.
University of Southern California
University of Southern California
Connections with the Hyperion water treatment facility bring environmental chemistry teaching into contact with water treatment practice and infrastructure in Los Angeles.
Explore learning beyond the classroom ↗EXPAND THE CONVERSATION
We welcome research conversations with colleagues in academia, industry, and environmental practice.
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