Tingting Han | Chemistry and Materials Science | Research Excellence Award

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Dr. Tingting Han | Chemistry and Materials Science | Research Excellence Award

Jiangsu Academy of Agricultural Sciences | China

Dr. Tingting Han is an Assistant Researcher at the Institute of Food Safety and Nutrition, Jiangsu Academy of Agricultural Sciences (JAAS), Nanjing, China, where she conducts cutting-edge research at the interface of analytical chemistry, nanomaterials, and food safety. She obtained her Ph.D. in Chemistry in 2022 from Nanjing University, under the supervision of Prof. HongYuan Chen and Prof. Jun-Jie Zhu, following earlier Master’s and Bachelor’s degrees in chemistry-related disciplines from Southeast University and Huaiyin Normal University, respectively. Her academic training has provided a strong foundation in electroanalytical chemistry and functional material design. Dr. Han’s research is primarily focused on the development of advanced functional nanomaterials and their electrochemiluminescence (ECL)-based applications in food safety control, biosensing, and human health monitoring. Her work emphasizes innovative strategies such as aggregation- and crystallization-induced enhanced electrochemiluminescence, nanoaggregate engineering, Janus emitters, and nanozyme-based signal amplification, enabling highly sensitive and selective detection of food contaminants and disease biomarkers. These approaches contribute significantly to improving analytical performance in complex matrices, particularly for trace-level detection relevant to public health and food security. Since joining JAAS in 2023, Dr. Han has taken on a leading role in multiple competitive research initiatives. She is currently leading or co-leading four funded research projects, including sub-projects under the National Key R&D Program of China and key laboratory research programs. These projects highlight her growing independence as a researcher and her ability to translate fundamental nanomaterial science into practical sensing platforms for real-world applications. Dr. Han has established a strong publication record despite her early career stage. She has authored more than 10 first-author SCI-indexed papers in internationally recognized journals such as Advanced Functional Materials, Small, Trends in Analytical Chemistry, Biosensors, and Electrochimica Acta. Notably, five of her publications appear in journals with impact factors exceeding 10, reflecting the high visibility and scientific impact of her work. Her contributions have advanced understanding of ECL mechanisms, signal amplification strategies, and nanomaterial-assisted biosensing formats.

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Tianwei He | Chemistry and Materials Science | Best Researcher Award

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Prof Dr. Tianwei He | Chemistry and Materials Science | Best Researcher Award 

Yunnan University | China

Dr. Tianwei He is an internationally recognized materials scientist and computational chemist whose research advances the rational discovery and design of next-generation electrocatalysts for sustainable energy and chemical transformations. He is currently an Associate Professor at the School of Materials and Energy, Yunnan University, China, where he leads cutting-edge research at the intersection of density functional theory (DFT), nanocatalysis, and machine learning. His academic training and professional trajectory span leading institutions in China, Australia, Germany, and Macau, reflecting a strong global research footprint. Dr. He obtained his PhD in Computational Materials Science from Queensland University of Technology (QUT), Australia, following earlier degrees in Materials Science and Engineering. He subsequently held postdoctoral and assistant researcher positions at the Fritz Haber Institute of the Max Planck Society (Germany), University of Macau, and Queensland University of Technology, working under renowned scholars including Prof. Karsten Reuter, Prof. Hui Pan, and Prof. Aijun Du. These experiences shaped his expertise in theoretical catalysis, surface science, and reaction mechanism modeling. His research focuses on the computational discovery of novel nanocatalysts for key electrochemical and photocatalytic reactions within the C, N, O, and H cycles, including HER, OER, ORR, nitrogen reduction, CO/CO₂ reduction, and selective hydrogenation. By constructing structure- and composition-sensitive models using DFT, NEB, and molecular dynamics, Dr. He provides atomic-level insights into active sites, scaling relationships, and reaction pathways. In recent years, he has integrated machine learning approaches to accelerate catalyst screening and performance prediction. Dr. He has authored and co-authored an extensive body of high-impact publications in premier journals such as Journal of the American Chemical Society, PNAS, Chem, Advanced Materials, Advanced Energy Materials, Chemical Society Reviews, ACS Catalysis, and Small. With an h-index of 38, over 4,900 citations, and multiple ESI Highly Cited and Hot Papers, his work is widely recognized for its originality and influence in the catalysis community. His studies on single-atom catalysts, heteronuclear dual-atom systems, high-entropy catalysts, and low-dimensional heterostructures have significantly advanced understanding of catalytic stability, selectivity, and efficiency. In addition to research, Dr. He actively contributes to the scientific community as an invited reviewer for leading journals and as a member of early-career editorial boards for Materials Today Energy, Battery Energy, and Journal of Electrochemistry. Through sustained excellence in research, mentorship, and international collaboration, Dr. Tianwei He continues to play a pivotal role in shaping the future of computational catalysis and sustainable energy materials.

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Jay Singh | Chemistry and Materials Science | Research Excellence Award

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Jay Singh | Chemistry and Materials Science | Research Excellence Award 

Thapar Institute of Engineering & Technology | India

Dr. Jay Singh is an Assistant Professor at the Thapar Institute of Engineering & Technology, India, with a strong research focus on advanced energy materials for sustainable electrochemical energy conversion and storage. His scholarly work lies at the intersection of energy storage systems, materials science, and water splitting technologies, addressing critical challenges associated with next-generation batteries and clean energy solutions. With a growing citation index of over 190 citations and 14 peer-reviewed journal publications indexed in reputed international databases, his research demonstrates both scientific depth and practical relevance. Dr. Singh’s primary contributions are centered on the design, synthesis, and electrochemical evaluation of advanced electrode materials for lithium-ion, sodium-ion, zinc-ion, and aluminium-ion batteries. He has developed nanostructured and doped transition metal oxides with precisely controlled morphologies to enhance ion diffusion kinetics, electrical conductivity, and long-term cycling stability. His materials engineering strategies have resulted in improved rate capability and electrochemical durability, contributing to the advancement of cost-effective and scalable battery chemistries suitable for large-scale energy storage applications. A distinguishing aspect of Dr. Singh’s research is his integration of machine learning and data-driven approaches into materials optimization, particularly for sodium-ion battery systems. By combining experimental electrochemistry with computational tools, he has accelerated materials screening and performance prediction, enabling efficient coin-cell development and deeper insights into charge storage mechanisms. This interdisciplinary methodology positions his work at the forefront of modern materials research, where artificial intelligence plays a key role in accelerating innovation. In addition to academic research, Dr. Singh has successfully completed consultancy and industry-oriented projects, reflecting his ability to translate fundamental research into practical technological solutions. He has established national and interdisciplinary collaborations, contributing to knowledge exchange and joint research outcomes in the field of sustainable energy materials. His research outputs have been disseminated through peer-reviewed publications and invited technical discussions, strengthening the global discourse on clean energy technologies. Overall, Dr. Jay Singh’s research profile reflects a strong commitment to advancing sustainable energy storage and conversion technologies, with impactful contributions that support the global transition toward renewable and environmentally responsible energy systems.

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Sanboh Lee | Chemistry and Materials Science | Excellence in Research Award

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Prof. Sanboh Lee | Chemistry and Materials Science | Excellence in Research Award 

National Tsing Hua University | Taiwan

Professor Sanboh Lee is a highly distinguished scholar in materials science and engineering, internationally recognized for foundational and applied contributions spanning structural materials, polymers, electronic materials, and transport phenomena. His research career has been characterized by exceptional breadth and depth, integrating solid mechanics, materials physics, and microstructural science to address complex material behavior across multiple length scales. Professor Lee’s scientific work has significantly advanced the understanding of elastic interactions between defects and cracks, fracture mechanics, diffusion-induced and thermal stresses, and phase transformations in crystalline and composite materials. His studies on dislocation–crack interactions and elastic inclusions have provided fundamental insights into fracture resistance and toughening mechanisms, influencing the design of high-performance structural materials. In parallel, his research on ionic single crystals and polymer systems has clarified the relationships between mass transport, phase separation, optical behavior, and mechanical performance, with implications for both engineering plastics and functional materials. A major strength of Professor Lee’s research lies in its interdisciplinary scope. His investigations into hydrogen transport, magnetic and mechanical properties of steels, and texture evolution in low-carbon laminations have contributed to improved energy and power-related materials. He has also made important contributions to semiconductor materials, particularly amorphous and nanocrystalline silicon, supporting advances in electronic and device technologies. His work in micro- and nano-machining, nano-imprint technology, and nanostructured materials reflects a forward-looking engagement with emerging fabrication and manufacturing approaches. Professor Lee has further extended materials science principles into unconventional areas, including the mechanics and thermal aging of food materials, demonstrating the versatility and societal relevance of his research framework. His scholarship bridges theory, experimentation, and application, consistently emphasizing structure–property–performance relationships. With more than 280 peer-reviewed journal publications and over 150 invited and contributed presentations, Professor Lee’s work has achieved sustained international impact. His research excellence has been widely recognized through numerous prestigious honors, fellowships, and lifetime achievement awards from leading scientific societies worldwide. In addition, his long-standing service on editorial boards, award committees, and international advisory panels reflects a deep commitment to shaping the global materials science community. Overall, Professor Sanboh Lee’s research profile exemplifies scientific rigor, intellectual leadership, and lasting influence, contributing fundamentally to materials mechanics, functional materials development, and interdisciplinary materials engineering.

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Wanting Zhu | Materials Science | Best Researcher Award | 13543

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Prof. Wanting Zhu | Materials Science | Best Researcher Award 

Prof. Wanting Zhu, Wuhan University of Technology (WUT), China

Prof. Wanting Zhu is a distinguished Professor of Materials Science and Engineering at the Wuhan University of Technology (WUT), where she conducts advanced research at the State Key Laboratory of Advanced Technology for Materials Synthesis and Processing. Her expertise lies in thermoelectric materials and device engineering, with a particular focus on artificially tilted-structure transverse thermoelectric devices. She has pioneered high-throughput screening methods and established key design principles for these systems across various application scenarios. With over ten SCI-indexed publications, including recent works in ACS Applied Materials & Interfaces and Journal of Power Sources, Prof. Zhu is a recognized leader in optimizing thermoelectric performance and device stability.

Author Profile

Scopus

Education

Prof. Wanting Zhu’s academic journey in materials science began with a strong inclination towards fundamental research and practical engineering applications. From the outset of her education, she demonstrated a profound interest in energy materials, particularly those that contribute to sustainable and efficient thermal-to-electric energy conversion. Her early academic training equipped her with a solid foundation in thermodynamics, solid-state physics, and electronic materials, laying the groundwork for what would become a career at the intersection of cutting-edge materials research and real-world technological applications. Her curiosity and drive for innovation during her formative academic years eventually led her to explore thermoelectric materials—an area both scientifically rich and highly relevant to global energy challenges.

Experience

Currently serving as a Professor of Materials Science and Engineering at the Wuhan University of Technology (WUT), Prof. Zhu is affiliated with the State Key Laboratory of Advanced Technology for Materials Synthesis and Processing. In this role, she actively leads high-impact research focused on the design, fabrication, and optimization of thermoelectric devices, especially those with artificially tilted multilayer structures. She has emerged as a leading figure in her field, bridging theoretical insight and experimental prowess.

Her lab not only conducts fundamental research but also engages in the development of functional materials for real-world applications in electronics, energy harvesting, and thermal management systems. Prof. Zhu also plays a vital role in mentoring graduate students and postdoctoral researchers, fostering a collaborative and innovation-driven research environment. Her commitment to scientific advancement is evident in her hands-on leadership, guiding both applied research and long-term academic training.

Research Focus

She has made pioneering contributions in developing artificially tilted multilayer thermoelectric systems, which exhibit transverse thermoelectric effects. Her research elucidates both the structural design principles and manufacturing techniques necessary for tailoring these devices to specific energy and thermal environments. Prof. Zhu developed an innovative high-throughput screening method for optimizing the performance of thermoelectric devices, significantly accelerating materials discovery and device fabrication. This method enables rapid identification of effective material combinations and geometric configurations, increasing the efficiency of research and reducing production costs. She has also extended her research into materials with broadband infrared radiation capabilities, such as spinel ferrites, for thermal regulation in electronics—demonstrating the versatility and interdisciplinary reach of her work.

Her publications, appearing in Journal of Power Sources, ACS Applied Materials & Interfaces, and Ceramics International, are a testament to her deep expertise and forward-thinking approach.

Award and Recognition

Prof. Zhu has authored more than 10 SCI-indexed publications as a first or corresponding author, and her research has been widely cited in the fields of thermoelectricity and materials engineering. Her scientific contributions have positioned her as a thought leader in thermoelectric device design in China and internationally.

Her work has gained attention not just for its academic rigor but also for its potential applications in next-generation wearable electronics, energy harvesters, and electronic cooling systems. She is frequently invited to collaborate and review for leading journals, reflecting her growing influence and professional standing in the global research community.

Publications

📘Enhancing electrical properties of flexible BiSbTe/epoxy composite films via liquid-phase extrusion – Journal of power resources(2024).

📘Optimizing Room‐Temperature Thermoelectric and Magnetocaloric Performance via Constructing Multi‐Scale Interfacial Phases in LaFeSi/BiSbTe Thermo‐Electro‐Magnetic Refrigeration Materials – Advanced functional materials(2024).

📘Excellent thermoelectric performance of Fe2NbAl alloy induced by strong crystal anharmonicity and high band degeneracy – Quantum Materials(2024).

 

 

 

 

 

Georgina Gregory | Chemistry and Materials Science | Best Researcher Award

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Dr. Georgina Gregory | Chemistry and Materials Science | Best Researcher Award

Royal Society Dorothy Hodgkin Fellow at University of Oxford, United Kingdom.

Georgina L. Gregory is a renowned chemist and Royal Society Dorothy Hodgkin Research Fellow at the University of Oxford. She holds a PhD and MRes (Distinction) from the University of Bath and a first-class honours MSci from Imperial College London. Her career spans academia and industry, including roles at Wadham College, the Faraday Institute, and Crown Packaging Ltd. Georgina’s research focuses on sustainable chemical technologies and battery applications, particularly innovative polymers for energy storage. She has received numerous awards for her leadership and research excellence, highlighting her expertise in strategic planning, data analysis, and project management. Georgina continues to drive advancements in green chemistry, making significant contributions to her field. 🌿🔬🌟

Professional Profiles:

Education

Georgina L. Gregory holds a PhD and MRes (Distinction) in Chemistry from the Centre for Sustainable Chemical Technologies at the University of Bath, which she completed in 2017. She also earned a first-class honours MSci in Chemistry from Imperial College London in 2011. 🎓🌟

Professional Experience

Georgina Gregory’s professional journey is marked by significant roles in academia and industry. She currently serves as a Royal Society Dorothy Hodgkin Research Fellow at the University of Oxford’s Department of Chemistry since October 2022. Concurrently, she is a Junior Research Fellow in Inorganic Chemistry at Wadham College, Oxford, a position she has held since October 2020. Previously, she was a Senior Postdoctoral Research Associate on the SOLBAT project at the Faraday Institute (2020-2022) and a Postdoctoral Research Associate in the Chemistry Research Lab at Oxford (2018-2020). Her industry experience includes a role as a Scientist at Crown Packaging Ltd. (2017-2018) and a PhD Placement at Syngenta (2016). 🔬📊

Research Interest

Georgina Gregory’s research interests are centered around sustainable chemical technologies and battery applications. Her work focuses on the development of polymers for use in energy storage, particularly in batteries, and she is actively involved in exploring innovative materials and methodologies to improve battery performance and sustainability. She is passionate about contributing to advancements in green chemistry and the development of environmentally friendly chemical processes. 🌿🔋

Awards and Honors

Georgina has received numerous awards and honors throughout her career. Notably, she has been recognized by the University of Oxford with the Award for Excellence Scheme, both in salary increments and monetary awards in 2022 and 2023. She has also received the Recognition Award for Leadership at Oxford in 2021 and 2022. Her research presentations have garnered accolades, including the Best Talk Prize at the Recent Appointees in Polymer Science (RAPS) in 2022, and several poster prizes and talk awards from conferences and symposia during her academic tenure. 🏆🎖️

Research Skills

Georgina Gregory possesses a robust set of research skills, including strategic planning, innovation, and creativity in scientific research. She is proficient in data analysis and project planning, with strong quantitative skills and experience in audit reporting. Her analytical thinking and ability to manage interdisciplinary teams have been instrumental in her research endeavors, particularly in the development and application of polymers for battery technologies. Her expertise is further demonstrated by her numerous invited presentations, published patents, and successful mentorship of graduate and undergraduate students. 📊

Publications

  1. Switchable Catalysis Improves the Properties of CO2-Derived Polymers: Poly(cyclohexene carbonate-b-ε-decalactone-b-cyclohexene carbonate) Adhesives
    • Authors: GS Sulley, GL Gregory, TTD Chen, L Peña Carrodeguas, G Trott, CK Williams
    • Year: 2020
    • Citations: 195
  2. Polymers from sugars: cyclic monomer synthesis, ring-opening polymerisation, material properties and applications
    • Authors: GL Gregory, EM López-Vidal, A Buchard
    • Year: 2017
    • Citations: 137
  3. Sequence control from mixtures: switchable polymerization catalysis and future materials applications
    • Authors: AC Deacy, GL Gregory, GS Sulley, TTD Chen, CK Williams
    • Year: 2021
    • Citations: 129
  4. Polymers from Sugars and CO2: Synthesis and Polymerization of a d-Mannose-Based Cyclic Carbonate
    • Authors: GL Gregory, LM Jenisch, B Charles, G Kociok-Kohn, A Buchard
    • Year: 2016
    • Citations: 115
  5. 2020 roadmap on solid-state batteries
    • Authors: M Pasta, D Armstrong, ZL Brown, J Bu, MR Castell, P Chen, A Cocks, et al.
    • Year: 2020
    • Citations: 112
  6. Easy access to oxygenated block polymers via switchable catalysis
    • Authors: T Stößer, GS Sulley, GL Gregory, CK Williams
    • Year: 2019
    • Citations: 93
  7. Bio‐based and degradable block polyester pressure‐sensitive adhesives
    • Authors: TTD Chen, LP Carrodeguas, GS Sulley, GL Gregory, CK Williams
    • Year: 2020
    • Citations: 81
  8. Triblock polyester thermoplastic elastomers with semi-aromatic polymer end blocks by ring-opening copolymerization
    • Authors: GL Gregory, GS Sulley, LP Carrodeguas, TTD Chen, A Santmarti, CK Williams
    • Year: 2020
    • Citations: 81
  9. Synthesis of 5-to 8-membered cyclic carbonates from diols and CO2: A one-step, atmospheric pressure and ambient temperature procedure
    • Authors: TM McGuire, EM López-Vidal, GL Gregory, A Buchard
    • Year: 2018
    • Citations: 80
  10. Synthesis of 6-membered cyclic carbonates from 1,3-diols and low CO2 pressure: A novel mild strategy to replace phosgene reagents
    • Authors: GL Gregory, M Ulmann, A Buchard
    • Year: 2015
    • Citations: 78