Direct ion-coupled redox pathways toward more effective energy and molecular transformations.
Investigate how defects and molecular, chemical, and structural heterogeneity evolve along these pathways and interfacial processes.
Direct ion-coupled redox pathways toward more effective energy and molecular transformations.
Investigate how defects and molecular, chemical, and structural heterogeneity evolve along these pathways and interfacial processes.
In particular, my research applies multimodal correlative X-ray characterization to probe interfacial reactions and coupled ionic transport.
Some of my representative research projects/accomplishments are described in more detail below, with connections to ongoing and future work.
Electrolyte systems and their interplay with energy materials:
Gang Wan et al., Science (2024); Gang Wan et al., ACS Energy Letters (2025); ACS Energy Letters (2021); Chemistry of Materials (2023)
Catalytic materials & systems:
Free-radical cooperativity and reaction engineering in light-driven processes: Gang Wan et al., Joule (2026);
The transport of ions in electrochemical processes: Gang Wan et al., Science Advances (2021); Accounts of Chemical Research (2021);
Reaction engineering, defects, and dynamics in thermochemical processes: Nature Catalysis (2023); ACS Catalysis (2022);
Solid state chemistry of single-site catalysis: Advanced Materials (2020); Chemistry of Materials (2018)
Mapping interfaces under far-from-equilibrium conditions using multimodal X-ray characterization:
Gang Wan et al., Science Advances (2021); Advanced Materials (2023); Nature Catalysis (2023)