Area of research
Renewable Energy, Sustainability and the Environment · Materials Chemistry
Research interest
Research interests include Materials science, Photocatalysis, Catalysis, Hydrogen, Chemistry, and Artificial photosynthesis.
Unlocking the potential of covalent organic frameworks: Fundamental investigation of molecular structures for in-situ H2O2 photosynthesis and antibiotic wastewater degradation
Plastic Upcycling via Artificial Photosynthesis: A Green Conversion From Waste to Value‐Added Chemicals
Concurrent Production of Glycolic Acid via Anode Valorization of Plastic Paired With Cathode Upcycling of Biomass Derivative
H <sub>2</sub> O <sub>2</sub> Production via Artificial Photosynthesis Over Defective Graphitic Carbon Nitride
Efficient co-production of ammonia and formic acid from nitrate and polyester <i>via</i> paired electrolysis
Photocatalytic Upcycling of Plastic Waste Into Value‐Added Chemicals
Direct Synthesis of Amino Acids from Plastic, Air, and Water
Paired electrochemical synthesis of glycolic acid and ammonia from polyester and nitrate sewage
Concurrent Production of Glycolic Acid via Anode Valorization of Plastic Paired With Cathode Upcycling of Biomass Derivative
Efficient Electrosynthesis of Dinitrile from Nylon‐66‐Derived Diamine Enabled by Highly Active Mn–O–Co Motifs in Spinel Oxides
Direct Synthesis of Amino Acids from Plastic, Air, and Water
Reversible Mn3+/Mn2+ redox chemistry for high-rate aqueous manganese-ion batteries
Tandem depolymerization-electrocatalysis for plastic waste upcycling
Tandem Integration of Biological and Electrochemical Catalysis for Efficient Polyester Upcycling under Ambient Conditions
Beyond biodegradation: upcycling of polylactic acid plastic waste into amino acids <i>via</i> cascade catalysis under mild conditions
Order–Disorder Engineering of Carbon Nitride for Photocatalytic H<sub>2</sub>O<sub>2</sub> Generation Coupled with Pollutant Removal
Polyester Upcycling to Glycine via Tandem Thermochemical–Electrochemical Catalysis
Unraveling the Impact of Oxygen Vacancy on Electrochemical Valorization of Polyester Over Spinel Oxides
Green and alcohol-free H<sub>2</sub>O<sub>2</sub> generation paired with simultaneous contaminant treatment enabled by sulfur/cyano-modified g-C<sub>3</sub>N<sub>4</sub> with efficient oxygen activation and proton adsorption
Breaking the symmetry of sulfur defect states <i>via</i> atomic substitution for enhanced CO <sub>2</sub> photoreduction
Food production from sludge
Artificial photosynthesis bringing new vigor into plastic wastes
Upgrading polyethylene terephthalate plastic into commodity chemicals paired with hydrogen evolution over a partially oxidized CuIn<sub>5</sub>S<sub>8</sub> nanosheet photocatalyst
Electroreforming injects a new life into solid waste
Realization of electron-deficient Ru sites <i>via</i> Co<sub>4</sub>N coupling for synergistically enhanced alkaline hydrogen evolution
Valence engineering via double exchange interaction in spinel oxides for enhanced oxygen evolution catalysis
Symmetry or asymmetry: which one is the platform of nitrogen vacancies for alkaline hydrogen evolution
Recent advances on solar-driven valorization of polyethylene terephthalate plastics into value-added chemicals
Recent Progress of Metal Sulfide Photocatalysts for Solar Energy Conversion
Trash to Treasure: Photoreforming of Plastic Waste into Commodity Chemicals and Hydrogen over MoS<sub>2</sub>-Tipped CdS Nanorods