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洪緯璿合聘教授

洪維萱教授照片 先進創新與儲能材料實驗室

信箱:hungwh@ncu.edu.tw

辦公室:E6-B138

實驗室:E6-B127

網站:實驗室網站

學位 / 經歷
  • Ph.D. in Chemical Engineering and Materials Science, University of Southern California, USA
  • Visiting Scholar, Department of Chemistry, Stanford University
  • Associate Professor, Department of Materials, Feng Chia University
研究項目

 

High-Entropy Materials, Electrocatalytic Seawater Splitting, CO2RR, Energy Storage  Devices, Low Dimensional Materials 

高熵材料、電催化海水分解、二氧化碳還原反應、能源儲存元件、低維度材料

研究背景

Over the past 5 years, the Wei Hsuan Hung laboratory has made distinctive contributions to clean  energy and environmental materials, with a growing focus on high-entropy ceramics/oxides and  carbon-based composite materials as multifunctional catalysts and electrode materials. The group has  published a series of papers on electrocatalytic water and seawater splitting, CO2 conversion,  ammonia decomposition for hydrogen production, degradation of organic pollutants, lithium-ion  batteries and supercapacitors, battery recycling, and nanomaterial-based rapid diagnostics. The group  has also extended this work to 2D transition metal dichalcogenides, thin-film sensors, solid oxide fuel  cells, and eco-friendly composites for 3D printing. (e.g. Nature Catalysis, 2023; Journal of the  American Chemical Society, 2025, 2022; Advanced Functional Materials, 2026; Journal of Power  Sources, 2024; ACS Omega, 2024; Materials Advances, 2025; Materials Chemistry and Physics,  2022).

Publications

1. Fawzi T.,Ke X.T.,Liu H.C.,Lin W.-C.,*Hung W.-H.,&Lee H. (2026, Nov). Bidirectional light  harvesting in a hierarchical H-TiO₂/NiO photocatalyst enables orientation-independent CO₂  reduction. Journal of Colloid and Interface Science, 721. 

2. Janotta B.,Schalenbach M.,Tempel H.,*Hung W.-H.,&Eichel R.-A. (2026, Jul). Complementing  Onsager's Conductivity Theory by Grotthuss Mechanism Mitigation via Ion-Induced Depletion  of Hydrogen-Bond-Donating Water. Journal of Chemical Theory and Computation, 22(14),  7096-7104. 

3. Koventhan C.,Tsai W.-X.,Huang H.-C.,Lin K.-T.,Tsai C.-Y.,Chiu I.-C.,Chou W.-S.,Chen K.- J.,Chang P.,Lo A.-Y.,&*Hung W.-H. (2026, Jun). Sustainable recycling of spent Li-ion battery  cathodes into FeNiCo-LDH catalysts for oxygen evolution reaction. Separation and Purification  Technology, 391. 

4. Deka J.R.,Saikia D.,Wu S.-W.,Tseng Y.-C.,*Hung W.-H.,&Kao H.-M. (2026, Jun). Sulfonic acid-functionalized waste coffee ground derived porous carbon as solid acid catalyst for green  synthesis of coumarins via Pechmann condensation reaction. Journal of Environmental  Chemical Engineering, 14(3). 

5. Lo C.-H.,Chung C.-C.,Wang P.-H.,Wu P.-H.,Lin Y.-J.,Wang S.-T.,Hsu C.-J.,Jeon S.,*Hung W.- H.,Shen C.-H.,Lien D.-H.,&Chueh Y.-L. (2026, Feb). Enhanced Crystallinity of P-Type 2D  Tellurium Thin Films by Pulsed Laser Annealing Process and Its Applications on High Performance Photodetectors and High-Sensitivity Gas Sensors. Advanced Functional Materials,  36(17). 

6. Tsai C.H.,Yang C.H.,Chang C.L.,Wu S.H.,Wu Y.J.,*Hung W.H.,&Lai K.Y. (2026, Feb). Stack  Performance Optimization and 3.5 kW System Demonstration of Thin Metal-Supported SOFCs  Fabricated by Atmospheric Plasma Spraying. Fuel Cells, 26(1). The author served as the  corresponding author for this work.

7. Yang T.-Y.,Sino P.A.,Peng Y.-R.,Kao C.-C.,Wu S.-C.,Hong Y.-H.,Kuo H.-C.,*Hung W.- H.,&Chueh Y.-L. (2026, Jan). Low-Temperature Transferred Nanostructured 2D Transition  Metal Dichalcogenides by a Direct Laser Contact Sublimation Transfer Method. Advanced  Functional Materials, 36(4). The author served as the corresponding author for this work. 

8. Chu P.-C.,Kang S.-Y.,Yu M.-L.,Liu Y.-P.,Chen Y.-H.,Hsu Y.-C.,Lee H.,Chiang C.-Y.,Chang  H.-Y.,*Hung W.-H.,&Lin W.-C. (2025, Dec). Ammonia decomposition and hydrogen  production via novel FeCoNiCuMnO high-entropy ceramic catalysts. npj Clean Water, 8(1).  NSTC 113-2221-E-008-033-MY3. The author served as the corresponding author for this work. 

9. Chiu I.-C.,Chiang C.-Y.,Chang H.-Y.,Li C.-T.,Chi H.-Y.,Huang H.-C.,Chang P.,Wang Y.- T.,Lee R.,Tsao I.-Y.,Chiang C.-L.,Chang B.K.,Lin Y.-G.,&*Hung W.H. (2025, Oct). Advanced  high entropy oxides for seawater splitting. Sustainable Materials and Technologies, 45. NSTC  110-2221-E-008-045-MY3. The author served as the corresponding author for this work. 

10. Sha Q.,Gao T.,Yan L.,*Hung W.-H.,Chiang C.-Y.,Zhou D.,Liu B.,Kuang Y.,&Sun X. (2025,  Jun). Lattice Oxygen Mechanism Induced on Nickel Sites by Cl- Adsorption for Efficient  Seawater Oxidation Reaction. Journal of the American Chemical Society, 147(24), 20716- 20724. 

11. Lin W.-C.,Tang J.-F.,Cheng C.-C.,Kuo C.-C.,&*Hung W.-H. (2025, Feb). Development of low shrinkage eco-friendly composite materials for the DLP 3D printing technique. Materials  Advances, 6(6), 1889-1898. NSTC 110-2221-E-008-045-MY3. 

12. Wardhana B.S.,Wang K.-W.,*Hung W.-H.,Tsao I.-Y.,Chen P.-C.,Jang J.S.,Hsu S.-C.,&Lee S.- W. (2024, Sep). Highly Nanoporous Nickel Foam as Current Collectors in 3D All-Solid-State  Microsupercapacitors. ACS Omega, 9(35), 37355-37364. 

13. Fawzi T.,Huang P.-C.,Kim J.,*Hung W.-H.,Lin W.-C.,&Lee H. (2024, Sep). Efficient and  economically affordable TiO2 nanotube-based ternary photocatalysts for CO2 conversion  boosted by NiO nanoparticles and carbon quantum dots. Electrochimica Acta, 497. 

14. Dadvari P.,*Hung W.-H.,&Wang K.-W. (2024, Jun). High Entropy Spinel Oxide  (AlCrCoNiFe2)O as Highly Active Oxygen Evolution Reaction Catalysts. ACS Omega, 9(25),  27692-27698. NSTC 110-2221-E-008-061-MY3. The author served as the corresponding author  for this work. 

15. Lu Y.-T.,Zeng Y.-X.,Tsai W.-X.,Huang H.-C.,Tsai M.-Y.,Diao Y.,&*Hung W.-H. (2024, Jun).  Study of Highly Efficient Au/Pt Nanoparticles for Rapid Screening of Clostridium difficile.  ACS Omega, 9(23), 24593-24600. The author served as the corresponding author for this work. 

16. Huang L.-P.,Yeh S.-F.,Liu Y.-P.,Lin W.-C.,Lin M.-C.,Tsao I.-Y.,Chiang C.-Y.,Lo A.- Y.,&*Hung W.-H. (2024, Jun). Reversible high entropy oxide anode: Interfacial electrocatalysis  for enhanced capacity and stability of LiNi0.8Co0.1Mn0.1O2 lithium-ion batteries. Journal of  Power Sources, 606. The author served as the corresponding author for this work. 

17. Yang S.-R.,Cheng S.-L.,Hsu H.-T.,Wardhana B.S.,Jiang M.-X.,Tsao I.-Y.,*Hung W.-H.,Wang  K.-W.,&Lee S.-W. (2024, Apr). Enhancing the performance of quasi-solid-state flexible  supercapacitors with Ag and MnO2 co-decorated carbon nanofibrous electrodes. Electrochimica  Acta, 483. The author served as the corresponding author for this work. 

18. Li C.-T.,Chiang C.-Y.,Chiu C.-T.,Yu M.-L.,Lo A.-Y.,Lin W.-C.,Lee H.,Lu Y.-T.,Wu H.- C.,&*Hung W.-H. (2024, Mar). High-entropy selenide catalyst for degradation of organic  pollutants. Journal of Electroanalytical Chemistry, 957.

19. Li J.,Kuang Y.,Zhang X.,*Hung W.-H.,Chiang C.-Y.,Zhu G.,Chen G.,Wang F.,Liang P.,&Dai  H. (2023, Dec). Electrochemical acetate production from high-pressure gaseous and liquid CO2.  Nature Catalysis, 6(12), 1151-1163. 

20. 盧盈蒼,Zhen Yu Shang,刁勇,&*Wei-Hsuan Hung (2023, Jul). 開發金/白金奈米複合粒子應用 於困難桿菌側向流動快篩檢測 Developing Gold/Platinum Nanocomposite Particles for Lateral  Flow Rapid Clostridium Difficile Test. 真空科技, 36(2), 21~1-21~7. The author served as the  corresponding author for this work. 

21. Koventhan C.,Chung Y.-C.,Lo A.-Y.,Weng H.-C.,&*Hung W.-H. (2023, Mar). Development of  a polyaniline/CMK-3/hydroquinone composite supercapacitor system. Materials Chemistry and  Physics, 297. MOST 107-2116-M-008-018-MY3. The author served as the corresponding author  for this work. 

22. Zhu G.,Liang P.,Huang C.-L.,Huang C.-C.,Li Y.-Y.,Wu S.-C.,Li J.,Wang F.,Tian X.,Huang W.- H.,Jiang S.-K.,*Hung W.-H.,Chen H.,Lin M.-C.,Hwang B.-J.,&Dai H. (2022, Dec). High Capacity Rechargeable Li/Cl2 Batteries with Graphite Positive Electrodes. Journal of the  American Chemical Society, 144(49), 22505-22513. 

23. Zhao Y.,Hu J.,Chiang C.-L.,Li Y.,Yang W.,Yang Z.,*Hung W.-H.,Lin Y.-G.,Chen Z.,Li B.,Gao  P.,&Li H. (2022, Sep). Ruthenium oxychloride supported by manganese oxide for stable oxygen  evolution in acidic media. Journal of Materials Chemistry A, 10(39), 20964-20974. 

24. Juan P.-C.,Lin K.-C.,Cho W.-H.,Kei C.-C.,*Hung W.-H.,&Shi H.-P. (2022, Sep). Plasma enhanced atomic layer deposition of molybdenum oxides using molybdenum hexacarbonyl as  the precursor. Materials Chemistry and Physics, 288. 

25. Chiu C.-T.,Teng Y.-J.,Dai B.-H.,Tsao I.-Y.,Lin W.-C.,Wang K.-W.,Hsu L.-C.,Chang Y.-C.,Li  C.-T.,Thai Nguyen H.T.,Chiang C.-Y.,&*Hung W.-H. (2022, Jan). Novel high-entropy  ceramic/carbon composite materials for the decomposition of organic pollutants. Materials  Chemistry and Physics, 275. MOST 106-2221-E-008-106-MY3. The author served as the  corresponding author for this work.