The School of Materials Science and Engineering (MSE) provides a vibrant and nurturing environment for staff and students to carry out inter-disciplinary research in key areas such as Computational Materials Science, Characterisation Materials Science, Defence Composite Materials, Functional Composite Materials, Energy, Nanomaterials, Low Dimensional Materials, Biomaterials Materials, Biological Materials, Bioinspired Materials and Sustainable Materials.
For more details, please view https://www.ntu.edu.sg/mse/research.
We are seeking a Research Fellow in Electrochemistry and System Design to pioneer research in oxygen evolution anodes and integrated electrolysis systems, combining targeted cathodic reactions (e.g., hydrogen evolution, CO₂ reduction) with scalable energy technologies. The role emphasizes advancing anion-exchange membrane (AEM) and bipolar membrane (BPM) electrolyzers through quantum-informed design, experimental innovation, and system-level engineering. The appointee will leverage in-situ electrochemical characterization (e.g., Raman spectroscopy, laser-induced transient analysis) and quantum mechanical insights to decode interfacial dynamics, catalyst degradation, and performance bottlenecks. This position supports the School of Materials Science and Engineering’s mission to deliver scalable, sustainable energy solutions by bridging fundamental science with industrial applications, capitalizing on the candidate’s expertise in system integration, catalyst engineering, and quantum-driven material optimization.

Key Responsibilities:

• Design and fabricate integrated electrolysis systems that synergize high-efficiency oxygen evolution anodes with complementary cathodic reactions (e.g., HER, CO₂RR) for sustainable hydrogen or chemical production.
• Develop quantum-informed strategies to engineer electrocatalysts and interfaces, leveraging orbital hybridization, electron transfer mechanisms, and cation/anion interactions.
• Optimize membrane electrolyzers (AEM/BPM) through advanced fabrication of membrane-electrode assemblies (MEAs), flow fields, and stack architectures.
• Probe interfacial dynamics using in-situ techniques to resolve degradation pathways and enhance durability.
• Translate quantum properties into operating systems with experimental validation.
• Publish high-impact research in journals
• Mentor students in system design, quantum chemistry, and cross-disciplinary collaboration.

Job Requirements:

• PhD in Chemical Engineering, Materials Science, or Physics, with a focus on electrochemistry, energy systems, or quantum materials.
• 2+ years of postdoctoral experience in electrolyzer design, catalyst development, or integrated energy systems.
• Hands-on experience fabricating electrolyzers (MEAs, bipolar plates) and optimizing multi-reaction systems.
• Proficiency in in-situ characterization (Raman, XRD, SEM) and electrochemical testing (CV, EIS, chronopotentiometry).
• Publication record: 20+ peer-reviewed papers in high-impact journals, with proven experience in energy systems design.
• Proven ability to lead collaborative projects, and mentor researchers
• Strong analytical, communication, and problem-solving skills for interdisciplinary teamwork.

We regret to inform that only shortlisted candidates will be notified.
Hiring Institution: NTU

• Design and fabricate integrated electrolysis systems that synergize high-efficiency oxygen evolution anodes with complementary cathodic reactions (e.g., HER, CO₂RR) for sustainable hydrogen or chemical production.
• Develop quantum-informed strategies to engineer electrocatalysts and interfaces, leveraging orbital hybridization, electron transfer mechanisms, and cation/anion interactions.
• Optimize membrane electrolyzers (AEM/BPM) through advanced fabrication of membrane-electrode assemblies (MEAs), flow fields, and stack architectures.
• Probe interfacial dynamics using in-situ techniques to resolve degradation pathways and enhance durability.
• Translate quantum properties into operating systems with experimental validation.
• Publish high-impact research in journals
• Mentor students in system design, quantum chemistry, and cross-disciplinary collaboration