Research
Research
Embedded Files
“But still try, for who knows what is possible?” -Michael Faraday
“But still try, for who knows what is possible?” -Michael Faraday
Membrane-Electrode Assemblies
Membrane-Electrode Assemblies
We focus on membrane-electrode-assemblies (MEA) and integrated electrochemical systems that enable the oxidation and reduction of renewable feedstocks such as CO₂, CH₄, O₂, H₂O, N₂, NO₃⁻, and biomass-derived molecules. By leveraging these sustainable inputs, we aim to produce a wide range of value-added products, including CO, CH₄, C₂H₄, C₃H₆, NO, NH₃, H₂, and bio-based monomers. Beyond fuel and chemical production, our research explores electrosynthetic strategies such as carboxylation, epoxidation, and C-H activation, offering new pathways to create functional materials and green chemicals.
We focus on membrane-electrode-assemblies (MEA) and integrated electrochemical systems that enable the oxidation and reduction of renewable feedstocks such as CO₂, CH₄, O₂, H₂O, N₂, NO₃⁻, and biomass-derived molecules. By leveraging these sustainable inputs, we aim to produce a wide range of value-added products, including CO, CH₄, C₂H₄, C₃H₆, NO, NH₃, H₂, and bio-based monomers. Beyond fuel and chemical production, our research explores electrosynthetic strategies such as carboxylation, epoxidation, and C-H activation, offering new pathways to create functional materials and green chemicals.
Artificial Photosynthesis
Artificial Photosynthesis
We investigate artificial photosynthesis systems that integrate semiconductor photocatalysts, electron mediators, and co-catalysts to drive solar-to-chemical energy conversion. By designing multi-component architectures with interfacial electron shuttles and water oxidation catalysts, we enhance charge separation and utilization efficiency. These systems enable sustainable transformations including water oxidation and carbon dioxide reduction. Through rational interface engineering, our goal is to realize efficient light-driven platforms that convert solar energy into renewable fuels and environmentally valuable chemicals.
We investigate artificial photosynthesis systems that integrate semiconductor photocatalysts, electron mediators, and co-catalysts to drive solar-to-chemical energy conversion. By designing multi-component architectures with interfacial electron shuttles and water oxidation catalysts, we enhance charge separation and utilization efficiency. These systems enable sustainable transformations including water oxidation and carbon dioxide reduction. Through rational interface engineering, our goal is to realize efficient light-driven platforms that convert solar energy into renewable fuels and environmentally valuable chemicals.
Water Remediation
Water Remediation
We address urgent environmental challenges through the development of advanced water remediation technologies. In particular, we focus on per- and polyfluoroalkyl substances (PFAS) removal, utilizing layered double hydroxides (LDHs) as highly effective and regenerable adsorbents. These features establish LDH-based platforms as promising materials for scalable, long-term water purification solutions.
We address urgent environmental challenges through the development of advanced water remediation technologies. In particular, we focus on per- and polyfluoroalkyl substances (PFAS) removal, utilizing layered double hydroxides (LDHs) as highly effective and regenerable adsorbents. These features establish LDH-based platforms as promising materials for scalable, long-term water purification solutions.
Page updated
Google Sites
Report abuse