Associate Professor from Hainan University, China
Dr. Jing Li is an accomplished researcher currently serving as an associate researcher at the School of Marine Science and Engineering, Hainan University. With a strong foundation in chemical and energy engineering, she focuses her research on hydrogen production technologies, particularly through water electrolysis and seawater electrolysis. Her work contributes significantly to the development of clean and renewable energy systems, aligning with global goals for sustainable energy and decarbonization. Dr. Li is deeply involved in investigating the mechanisms behind seawater electrolysis, aiming to enhance its efficiency and feasibility for practical applications. She combines theoretical analysis with experimental methods to advance the field of hydrogen energy, while also contributing to the design and optimization of related electrochemical devices. Her scientific contributions are becoming increasingly relevant as nations seek alternatives to fossil fuels and move toward hydrogen-based energy systems. Through her commitment to excellence and innovation, Dr. Li has emerged as a key contributor to the field of green hydrogen research. Her dedication to environmental sustainability and energy efficiency reflects in her work, making her a valuable asset to her institution and the broader scientific community. She represents a new generation of researchers addressing urgent global challenges through advanced science and technology.
Professional Profile
Education
Dr. Jing Li received her Ph.D. degree from South China University of Technology, a leading institution in the fields of chemical engineering and materials science. During her doctoral studies, she focused on electrochemical energy conversion systems, developing a strong background in hydrogen production technologies and electrolysis processes. Her doctoral research laid a solid foundation for her future work on hydrogen generation and device optimization. The rigorous training she received at South China University of Technology equipped her with comprehensive knowledge of physical chemistry, materials synthesis, electrochemical mechanisms, and energy systems. Her academic path emphasized both theoretical modeling and hands-on laboratory experimentation, preparing her to tackle complex problems in energy conversion and sustainability. The curriculum and research environment of her alma mater encouraged innovation, cross-disciplinary integration, and critical thinking—skills that are now central to her research endeavors. As a result, Dr. Li emerged from her Ph.D. studies with a well-rounded academic background, capable of contributing original and impactful research to the field of renewable energy. Her advanced education continues to be the driving force behind her current projects and scientific achievements in marine-based hydrogen technologies.
Professional Experience
Dr. Jing Li currently holds the position of Associate Researcher at the School of Marine Science and Engineering, Hainan University. In this role, she leads and contributes to multiple research projects focused on hydrogen production and electrochemical energy systems. Her responsibilities include the design and optimization of experimental protocols for seawater electrolysis, analysis of reaction mechanisms, and development of innovative device architectures. Prior to her current role, she gained valuable research experience through academic and industrial collaborations during her doctoral studies, participating in joint projects that combined advanced materials science with sustainable energy applications. At Hainan University, she actively mentors graduate students, fosters interdisciplinary research, and contributes to the university’s growing reputation in marine engineering and clean energy. She is involved in securing research funding, publishing peer-reviewed articles, and presenting her findings at national and international conferences. Her academic career is marked by a clear trajectory of research focus and practical innovation. Dr. Li’s professional journey reflects her commitment to addressing global energy challenges through scientific rigor, collaborative teamwork, and a passion for renewable energy solutions, positioning her as a rising expert in hydrogen energy systems and electrochemical engineering.
Research Interest
Dr. Jing Li’s primary research interests revolve around hydrogen energy production, particularly through electrochemical methods such as water and seawater electrolysis. She is deeply focused on advancing the fundamental understanding and practical efficiency of hydrogen generation technologies, which play a pivotal role in global strategies for achieving carbon neutrality. Her specific interests include the development of novel catalysts and electrodes for electrolysis, the optimization of electrochemical devices, and the study of reaction pathways and mechanisms involved in seawater splitting. Her work aims to overcome critical barriers such as low efficiency, high energy consumption, and corrosion challenges associated with seawater electrolysis. In addition, Dr. Li is interested in sustainable device engineering and system integration for on-site hydrogen generation, particularly in marine and coastal environments. She explores new materials and surface treatments to improve the durability and output of electrolysis systems. Her interdisciplinary approach draws from materials science, electrochemistry, environmental science, and marine engineering, positioning her research at the intersection of clean energy and sustainable water resources. Ultimately, Dr. Li’s research contributes to building a hydrogen-based energy economy by developing cost-effective, scalable, and eco-friendly solutions for renewable hydrogen production from natural water sources.
Research Skills
Dr. Jing Li possesses a comprehensive set of research skills essential for advanced studies in hydrogen production and electrochemical systems. Her expertise includes electrochemical characterization techniques such as cyclic voltammetry (CV), electrochemical impedance spectroscopy (EIS), and chronoamperometry, which she uses to investigate reaction kinetics and evaluate catalyst performance. She is proficient in synthesizing and modifying electrocatalyst materials, utilizing both wet chemistry and solid-state methods. Additionally, she is skilled in the structural and surface characterization of materials using tools such as scanning electron microscopy (SEM), X-ray diffraction (XRD), and X-ray photoelectron spectroscopy (XPS). Her research also involves the design and fabrication of prototype electrolysis cells and custom test platforms for real-time performance assessment. Dr. Li has experience with computational modeling and data analysis, enabling her to link experimental results with theoretical insights. Her laboratory management skills include supervising junior researchers, ensuring safety compliance, and maintaining the quality and reproducibility of experimental protocols. She is also adept at scientific writing and communication, regularly contributing to peer-reviewed publications and technical reports. Overall, her diverse technical and analytical competencies enable her to lead innovative research in clean hydrogen energy with precision, depth, and scientific integrity.
Awards and Honors
Dr. Jing Li has received recognition for her promising contributions to sustainable energy research through awards and institutional support, although she is still in the early stages of accumulating large-scale accolades. During her Ph.D. studies, she was awarded scholarships and research grants that supported her work in electrochemical energy conversion. Her research excellence has been acknowledged through conference presentations, invitations to collaborative projects, and institutional funding for emerging researchers at Hainan University. These honors reflect her growing impact and the scientific merit of her research topics. She has also been nominated for early-career researcher awards within university-level initiatives and has gained positive peer recognition for her work on seawater electrolysis. While her list of international or national awards is still developing, her consistent scientific output and growing portfolio of research projects suggest she is on a strong trajectory toward more prestigious recognitions. As her career advances and her contributions to hydrogen energy research expand, Dr. Li is well-positioned to receive further awards and honors that reflect her dedication, innovation, and potential to drive meaningful change in the field of clean energy technology.
Conclusion
Dr. Jing Li is a dedicated and emerging researcher in the field of hydrogen energy, with a clear focus on water and seawater electrolysis. Her work is contributing to one of the most pressing challenges of our time: the transition to clean and sustainable energy. With a strong academic background, growing publication record, and hands-on expertise in electrochemical systems, she is steadily building a research profile that addresses both theoretical and practical aspects of hydrogen production. Her commitment to advancing fundamental understanding while developing scalable technologies demonstrates a balanced and forward-thinking research philosophy. While she would benefit from expanded collaborations, a broader international presence, and increased visibility through publications and patents, she has already shown a strong capacity for impactful innovation. Dr. Li represents the next generation of energy researchers who are not only contributing to academic knowledge but also offering real-world solutions. Her continued progress and dedication make her a strong and deserving candidate for the Best Researcher Award, and recognition at this stage would further support and motivate her promising research career in the energy sciences.
Publications Top Notes
1. Tip carbon encapsulation customizes cationic enrichment and valence stabilization for low K+ acidic CO2 electroreduction
Authors: Zhitong Wang, Dongyu Liu, Chenfeng Xia, … Bao Yu Xia, Xinlong Tian
Journal: Nature Communications
Year: 2025
Citations: 1
2. Plant derived multifunctional binders for shuttle-free zinc-iodine batteries
Authors: Jiahao Zhu, Shan Guo, Yang Zhang, … Xinlong Tian, Xiaodong Shi
Journal: Nano Energy
Year: 2025
3. Pyrrole-type TM-N3 sites as high-efficient bifunctional oxygen reactions electrocatalysts: From theoretical prediction to experimental validation
Authors: Chunxia Wu, Yanhui Yu, Yiming Song, … Xinlong Tian, Daoxiong Wu
Journal: Journal of Energy Chemistry
Year: 2025
Citations: 2
4. Oxygen-Coordinated Cr Single-Atom Catalyst for Oxygen Reduction Reaction in Proton Exchange Membrane Fuel CellsAuthors: Junming Luo, Yating Zhang, Zhe Lü, … Zhengpei Miao, Xinlong Tian
Journal: Angewandte Chemie International Edition
Year: 2025
5. Ni-N-C support boosts PtRu sub-nanocluster for effective methanol oxidation reaction
Authors: Xue Zhang, Chunxia Wu, Ye Bu, … Xinlong Tian, Peilin Deng
Journal: Chemical Engineering Journal
Year: 2025
6. Layered Organic Molecular Crystal with One-Dimensional Ion Migration Channel for Durable Magnesium-Based Dual-Ion Batteries
Authors: Yanzeng Ge, Baoquan Liu, Daoxiong Wu, … Xinlong Tian, Jinlin Yang
Journal: ACS Energy Letters
Year: 2025
Citations: 2
7. Hard Lewis acid induced chloride repulsion for durable neutral seawater electrolysis (Review)
Authors: Suyang Feng, Gai Li, Qingyi Wei, … Xinlong Tian, Zhenye Kang
Year: 2025
Citations: 1
8. Iridium-based electrocatalysts for acidic oxygen evolution reaction (Review)
Authors: Yanhui Yu, Gai Li, Yutong Xiao, … Xinlong Tian, Yuliang Yuan
Year: 2025
Citations: 1
9. Recent advances of CuSbS₂ and CuPbSbS₃ as photocatalyst in the application of photocatalytic hydrogen evolution and degradation (Review)
Authors: Xinlong Zheng, Zhongyun Shao, Jiaxin Lin, … Xinlong Tian, Yuhao Liu
Year: 2025
Citations: 1
10. Sulfonated Lignin Binder Blocks Active Iodine Dissolution and Polyiodide Shuttle Toward Durable Zinc-Iodine Batteries
Authors: Zhixiang Chen, Jie Zhang, Chuancong Zhou, … Xinlong Tian, Xiaodong Shi
Journal: Advanced Energy Materials
Year: 2025
Citations: 4