
Honors - Prof. Hung
Honors - Students
Catalysis
In-situ Techniques
Our research interests cover the synthesis of nanomaterials, the application of catalytic reaction, the design of catalytic reactors, and the development of in-situ techniques for energy materials in the applications of OER, HER, ORR, and CO2RR
Latest News
Recent Publications
20 Mar, 2026
Congratulate Kang-Shun on winning Best Presentation Award in HERCULES 2026.
10 Feb, 2026
2026 Chemical National Meeting
10 Feb, 2026
2026 Year-End Party
16 Jan, 2026
Congratulate Kang-Shun, Yu-Jhih, and Yu-Cheng to complete VLSI Training Course.
12 Nov, 2025
Congratulate Prof. Hung on receiving Highly Cited Researcher, 2025
2 Nov, 2025
Congratulate Ming-Hsuan, Ya-Ching, and Chi Kang on winning Post Awards in International Conference on Green Electrochemical Technology
12 Sept, 2025
Congratulate Prof. Hung on Publishing in Nature Synthesis as a Major Corresponding author
- Corresponding/First/Cofirst -
Cr and Nd co-doped cobalt oxide for stable proton exchange membrane water electrolysis. Nature Commun. 2026, accepted.
Model Thiophene-Decorated Nickel Porphyrins for Tandem CO2 Reduction. Nature Synth. 2026, 5, 189.
Realizing the practical application of CO2 electroreduction for urban wastewater denitrification. Nature Water 2025, 3, 1291.
Breaking the Linear-scaling Limit in Multi-electron-transfer Catalysis through Intermediate Spillover. Nature Catal. 2025, 8, 378.
Electroreduction of CO2 to Methane with Triazole Molecular Catalysts. Nature Energy 2024, 9, 1397.
- Coauthor -
Additive-assisted perovskite crystallization on industrial TOPCon silicon for tandem solar cells with improved efficiency. Nature Energy 2026, accepted.
Photo-enhanced spillover hydrogenation over semiconductor-supported Pd nanocatalysts. Nature Catal. 2026, 9, 338-347.
Tailored water–surface interactions on cobalt oxide for stable proton-exchange-membrane water electrolysis. Nature Catal. 2026, 9, 123-133.
Catalyst alloying enables control over the electrochemical hydrogen transfer route. Nature Commun. 2026, 17, 671.
Dopant-induced switch in rate-determining step enables high current ethylene electrosynthesis at <2 V full-cell voltage. Nature Synth. 2025, 4, 1396.
Atomic-level Cu Active Sites Enable CO2 Reduction to Multi-carbon Products in Strong Acid, Nature Synth. 2025, 4, 262.






























































