Prof. Wen-Hui (Sophia) ChengTaiwan
National Cheng Kung University
| 2021 to present | | Assistant Professor, Department of Materials Science and Engineering, National Cheng Kung University |
| to present | | Postdoctoral Researcher, Tomkat Center, Stanford University |
| 2014 - 2020 | | PhD, Department of Applied Physics and Materials Science, California Institute of Technology, USA |
| 2011 - 2013 | | MS, Department of Materials Science and Engineering, National Cheng Kung University, Taiwan |
| 2007 - 2011 | | BS, Department of Materials Science and Engineering, National Cheng Kung University, Taiwan |
| 2020 - | | Postdoctoral Researcher, Tomkat Center, Stanford University |
| 2021 | | Ministry of Education Yushan Young Scholar |
| 2021 | | 2030 Cross-Generation Young Scholars Program - Emerging Young Scholars |
| 2025 | | 2025 Future Tech Award |
Solar fuels/Artificial photosynthesis, Light management in nanophotonic device, Plasmonic photo(electro)chemistry, Nanofabrication and surface/Interface characterization
Integrated CO2 Capture and Utilization: A Synergistic Pathway to Carbon Neutrality
TBA TBA
Green Hydrogen Usage for the De-Carbonization and De-Fossilization of Industrial Key Sectors/TBA
The escalation of atmospheric CO2 emissions driven by industrial expansion necessitates the urgent development of scalable carbon capture and utilization (CCU) strategies to meet 2050 net-zero targets. While carbon capture and subsequent conversion are traditionally treated as decoupled processes with independent energy overheads, integrating these stages offers a transformative pathway toward industrial decarbonization. This study presents a novel integrated electrochemical approach that merges CO2 capture and reduction into a single-stage process. By utilizing amine-based capture media directly as the electrolyte, we demonstrate the efficient electrochemical reduction of the CO2-amine adduct into high-value chemical feedstocks. A significant advantage of this system is the simultaneous regeneration of the amine sorbent during the reduction cycle, which substantially enhances the overall energy efficiency and sustainability of the carbon loop. To evaluate the system’s industrial viability, we conducted a systematic investigation into the effects of various reaction parameters, including amine molecular structures, electrolyte additives, and optimized electrochemical conditions. Our findings provide critical insights into the kinetics of integrated CCU systems, offering a robust framework for advancing practical, carbon-neutral technologies.