Assoc. Prof. Dr. Jinlong Wang | Materials Science | Best Researcher Award
Teacher at Tongling University, China
Wang Jinlong is a highly accomplished researcher in the field of condensed matter physics, with a specialization in the study of materials used in nuclear fusion devices. He has an extensive background in material simulation using first-principles and molecular dynamics methods, with a focus on the behavior of tungsten under helium irradiation. His work contributes significantly to understanding the properties of materials used in high-energy environments, specifically in fusion reactors. Wang’s research is not only academically rich but also practically relevant, as it informs the development of better materials for nuclear fusion technology. His contributions extend to the publication of numerous papers in leading journals, the co-authoring of textbooks, and leading several high-profile research projects. Throughout his career, he has demonstrated expertise in computational modeling and material science, cementing his reputation as a leader in his field.
Professional Profile
Education
Wang Jinlong’s educational journey reflects his dedication to condensed matter physics and material science. He completed his Ph.D. in Condensed Matter Physics at Beihang University in January 2016, under the guidance of leading experts in the field. Before that, he earned a Master’s degree in Condensed Matter Physics from Henan Normal University in 2011 and a Bachelor’s degree in Applied Physics from Henan University of Technology in 2008. His solid academic background provided a strong foundation for his research career, particularly in the areas of material simulation and nuclear fusion. After his doctoral studies, he pursued postdoctoral research in nuclear science and technology at the Hefei Institute of Plasma Physics, where he advanced his expertise in the field.
Professional Experience
Wang Jinlong’s professional experience spans academia and research institutions. From 2016 to 2022, he served as an Associate Professor at Xinxiang University, where he taught courses on electrodynamics, electromagnetic fields and waves, university physics, and MATLAB programming. His teaching responsibilities have been complemented by his active research career, contributing to multiple scientific projects and collaborations. His experience as a project leader on research related to the irradiation damage mechanisms in nuclear fusion materials further highlights his leadership and expertise in his field. Wang’s professional trajectory reflects his strong combination of academic teaching, research leadership, and significant contributions to scientific knowledge in the area of materials science.
Research Interests
Wang Jinlong’s primary research interests lie in the area of condensed matter physics, with a specific focus on material simulations using first-principles and molecular dynamics. His work is deeply concerned with understanding the mechanical, thermal, and electronic properties of materials under extreme conditions, especially in the context of nuclear fusion. One of his key research areas is studying the effects of helium irradiation on tungsten, a material widely used in fusion reactors. He aims to understand how helium atoms behave within tungsten, specifically their clustering and migration behavior, which can have profound implications for the material’s performance under fusion conditions. Additionally, Wang’s research also delves into other material properties, such as heat resistance and mechanical strength, contributing to the development of better materials for future nuclear energy applications.
Research Skills
Wang Jinlong’s research skills are extensive and include expertise in computational modeling and material science. He is highly skilled in using software such as C++ and Python for developing machine learning-based molecular dynamics force fields. His proficiency in first-principles simulations enables him to model complex materials at the atomic level, providing valuable insights into their behavior under various conditions. Wang’s research also involves advanced simulation techniques to study the interactions between helium atoms and materials, which is critical for understanding irradiation damage in nuclear fusion reactors. Furthermore, his experience in using various computational tools for materials modeling, combined with his solid theoretical knowledge in condensed matter physics, allows him to approach complex problems from a variety of angles, making him a versatile researcher in the field.
Awards and Honors
Throughout his career, Wang Jinlong has received several prestigious awards and honors that recognize his outstanding contributions to the field of condensed matter physics. His research has been funded by major national and provincial scientific organizations, including the National Natural Science Foundation of China and the Henan Provincial Department of Education. His leadership in several research projects, particularly those focused on nuclear fusion materials, has garnered recognition within the academic community. Wang has published multiple high-impact papers in leading scientific journals such as Nuclear Materials and Energy and Journal of Nuclear Materials, further establishing his reputation in the field. Additionally, he has been honored for his academic achievements through co-authoring books on intelligent science and technology, solidifying his role as both a researcher and educator.
Conclusion
Wang Jinlong is a highly qualified candidate for the Best Researcher Award, given his substantial contributions to the field of condensed matter physics, particularly in the context of nuclear fusion. His leadership in groundbreaking research, strong publication record, and academic contributions underscore his exceptional abilities. To further strengthen his position, expanding collaborations and increasing public engagement with his research would be beneficial. His ongoing work on the development of nuclear fusion materials is highly significant, marking him as a leader in his field with the potential to drive future advancements.
Publication Top Notes
- B-N Co-Doped Graphene: Stability and Catalytic Activity in Oxygen Reduction Reaction – A Theoretical Insight
- Authors: Wang, J., Guo, J., Liu, Y.-Y., Li, X.-C., Song, W.
- Year: 2024
- Journal: ChemPhysChem
- Volume: 25
- Issue: 20
- Citations: 1
- Phosphorus and nitrogen co-doped-graphene: Stability and catalytic activity in oxygen reduction reaction
- Authors: Guo, J., Shao, W., Yan, H., Wang, J., Li, X.-C.
- Year: 2024
- Journal: Carbon Trends
- Volume: 16
- Article: 100379
- Molecular dynamics investigation of dislocation-hydrogen/helium interactions in tungsten
- Authors: Xu, B.-C., Li, X.-C., Wang, J., Zhou, H.-S., Luo, G.-N.
- Year: 2024
- Journal: Journal of Nuclear Materials
- Volume: 592
- Article: 154948
- Citations: 2
- Possible approaches for simulating the formation of fuzz structure on tungsten surface under helium irradiation
- Authors: Wang, J., Guo, J., Liu, Y.-Y., Li, X.-C., Luo, G.-N.
- Year: 2024
- Journal: Computational Materials Science
- Volume: 235
- Article: 112807
- A DFT Investigation of B-Doped C3N as Single Atom Electrocatalysts for N2-to-NH3 Conversion
- Authors: Ma, P., Du, P., Song, W., Wang, J.
- Year: 2024
- Journal: ChemPhysChem
- Volume: 25
- Issue: 2
- Article: e202300497
- Citations: 1
- Diffusion and incidence of helium on tungsten surface
- Authors: Wang, J., Guo, J., He, B., Li, X.-C., Luo, G.-N.
- Year: 2023
- Journal: Journal of Nuclear Materials
- Volume: 586
- Article: 154689
- Citations: 4
- Interaction of 1/2〈111〉 interstitial dislocation loop with hydrogen and helium in tungsten: molecular dynamics simulation
- Authors: Xu, B.-C., Li, X.-C., Wang, J., Zhou, H.-S., Luo, G.-N.
- Year: 2023
- Journal: Materials Research Express
- Volume: 10
- Issue: 8
- Article: 086509
- Citations: 4
- Atomic study of the trapped and migration patterns of point defects around screw dislocation in tungsten
- Authors: Xu, B.-C., Li, X.-C., Wang, J., Zhou, H.-S., Luo, G.-N.
- Year: 2023
- Journal: Nuclear Materials and Energy
- Volume: 34
- Article: 101400
- Citations: 3
- First-principles insight of hydrogen dissolution and diffusion properties in γ-Al2O3
- Authors: Pan, X.-D., Li, X.-C., Wang, J., Zhou, H.-S., Luo, G.-N.
- Year: 2023
- Journal: Journal of Nuclear Materials
- Volume: 574
- Article: 154156
- Citations: 3
- Molecular dynamics study on melting point of tungsten nanostructures
- Authors: Wang, J., Chai, J., Dang, W., Li, X.-C., Luo, G.-N.
- Year: 2022
- Journal: Nuclear Materials and Energy
- Volume: 33
- Article: 101260
- Citations: 4