Wenxin Li | Applied Superconductivity | Best Academic Researcher Award

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Dr. Wenxin Li | Applied Superconductivity | Best Academic Researcher Award

Assistant Researcher | Institute of Electrical Engineering | China

Dr. Wenxin Li, Assistant Researcher at the Institute of Electrical Engineering, Chinese Academy of Sciences, is a dedicated scholar whose expertise lies in applied superconductivity, focusing particularly on superconducting magnets, cables, and fault current limiters. He received his Ph.D. in high-temperature superconducting application technologies from Tianjin University, building a strong academic and technical foundation in cryogenic science and engineering. His professional career is marked by active participation in multiple high-impact projects funded by national and provincial agencies, including those under the National Key R&D Program of China and the National Natural Science Foundation of China. Through these initiatives, he has contributed to the design and optimization of next-generation superconducting systems aimed at improving the reliability, efficiency, and scalability of advanced power technologies. His research on superconducting energy storage and conversion devices has achieved international recognition, with one of his works highlighted by Advances in Engineering as a key scientific breakthrough. Wenxin Li has authored 39 peer-reviewed publications and is the holder of four patents, underscoring both his theoretical insight and practical innovation in the field. His service as a reviewer for prestigious journals, such as IEEE Transactions on Applied Superconductivity and Heliyon, reflects his standing in the global research community. His academic impact, according to Google Scholar, includes 322 citations, an h-index of 11, and an i10-index of 14.

Profile: Google Scholar

Featured Publications

1. Xin, Y., Li, W., Dong, Q., Yang, T., Tian, B., & Li, Q. (2020). Superconductors and Lenz’s law. Superconductor Science and Technology, 33(5), 055004.

2. Li, G., Li, C., Xin, Y., Hong, W., Li, W., Yang, T., & Li, B. (2021). Dynamic modelling methodology for an HTS energy converter using moving mesh. Superconductor Science and Technology, 34(10),

3. Li, W., Yang, T., Li, G., Lu, J., & Xin, Y. (2021). Experimental study of a novel superconducting energy conversion/storage device. Energy Conversion and Management, 243, 114350.

4. Zhang, H., Yang, T., Li, W., Xin, Y., Li, C., Iacchetti, M. F., Smith, A. C., & Mueller, M. (2022). Origin of the anomalous electromechanical interaction between a moving magnetic dipole and a closed superconducting loop. Superconductor Science and Technology, 35(4), 045009.

5. Wen, Y., Xin, Y., Hong, W., Zhao, C., & Li, W. (2020). Comparative study between electromagnet and permanent magnet rails for HTS maglev. Superconductor Science and Technology, 33(3), 035011.

Guang-Lin Zhao | Superconductivity | Best Researcher Award

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Dr. Guang-Lin Zhao | Superconductivity | Best Researcher Award

Professor at Southern University and A&M College, United States

Professor Guang-Lin Zhao is a distinguished physicist and educator whose research in high-temperature superconductivity has made significant contributions to the field of cryogenic physics. Serving as a professor at Southern University and A&M College, he has advanced fundamental understanding of superconducting mechanisms while nurturing future generations of physicists. With over 130 published articles in high-impact journals and a career dedicated to unraveling the mysteries of superconductivity, Professor Zhao stands as a leading candidate for the Best Researcher Award.

Professional Profile

Scopus Profile | ORCID

Education

Professor Zhao pursued his doctoral studies in physics at Iowa State University, where he obtained his Ph.D. His academic training laid a strong foundation for his career in condensed matter physics, particularly in superconductivity and related cryogenic phenomena. His doctoral work provided him with expertise in both theoretical and experimental physics, equipping him with the analytical skills and scientific rigor that would later define his career. This educational background positioned him to address some of the most challenging questions in modern physics, especially in understanding the microscopic mechanisms underlying high-temperature superconductors.

Experience

Over the course of his academic career, Professor Zhao has established himself as an influential educator and researcher at Southern University and A&M College. His role as a professor of physics goes beyond teaching; he has been actively engaged in mentoring students and young researchers, fostering their growth in the areas of theoretical physics and applied superconductivity. His professional experience is also marked by extensive collaborations with research institutions, both nationally and internationally, allowing him to bridge diverse perspectives in tackling complex scientific problems. By integrating teaching and research, he has significantly contributed to the academic development of his institution while simultaneously advancing global scientific knowledge in cryogenics and superconductivity.

Research Focus

Professor Zhao’s primary research focus is on the mechanisms of high-temperature superconductivity, particularly in cuprate superconductors such as YBa2Cu3O7. His investigations have centered on the temperature-dependent Eliashberg gap equations and the properties of the pseudogap state. One of his most significant achievements has been demonstrating the existence of nonvanishing Eliashberg gap functions above the critical temperature, offering new insights into the persistence of superconducting characteristics beyond conventional limits. His findings highlight anisotropy in superconducting gaps on the Fermi surface and reveal that even above critical temperature, finite-frequency behavior exhibits unique non-zero properties. These contributions have deepened the scientific community’s understanding of pseudogap states, which remain one of the central puzzles in condensed matter physics. Beyond superconductivity, his research spans computational modeling, quantum mechanics, and cryogenic applications, solidifying his reputation as an innovator in the field.

Publication Top Notes

Title: Nonvanishing Eliashberg Gap Function in YBa2Cu3O7 above Tc
Authors: Guang-Lin Zhao
Summary: This study solves Eliashberg gap equations in YBa2Cu3O7, showing non-zero finite-frequency gap functions above Tc, offering insights into pseudogap state phenomena.

Title: Morphology-controlled vertically grown manganese-substituted nickel-sulfide nanosheets for binder-free asymmetric supercapacitors
Authors: [Authors not fully listed in provided text]
Summary: Developed manganese-substituted nickel-sulfide nanosheets with controlled morphology, enhancing binder-free asymmetric supercapacitors’ electrochemical performance and energy storage capacity.

Title: A Review on the Recent Advancements of Ni-Based Sulfides and Mixed Sulfides for Supercapacitors and Electrocatalysis (Oxygen Evolution Reaction)
Authors: [Authors not fully listed in provided text]
Summary: Comprehensive review highlighting structural, electrochemical, and catalytic advancements of Ni-based sulfides and composites in supercapacitor technology and oxygen evolution electrocatalysis.

Title: High density interfaces enhanced microwave absorption in multifunctional carbon nanotubes-glass fiber-epoxy composites
Authors: [Authors not fully listed in provided text]
Summary: Demonstrated high-density interface design in CNT-glass fiber-epoxy composites, significantly improving microwave absorption, multifunctional performance, and electromagnetic interference shielding properties.

Title: Electromagnetic Wave Absorption Polymer Nanocomposites
Authors: [Authors not fully listed in provided text]
Summary: Book chapter reviewing polymer nanocomposites for electromagnetic wave absorption, emphasizing design, mechanisms, and performance optimization for advanced electromagnetic shielding applications.

Conclusion

Professor Guang-Lin Zhao’s career is defined by his unwavering pursuit of scientific truth in the domain of superconductivity and cryogenics. His rigorous research has not only expanded theoretical understanding but also opened pathways for practical applications in energy-efficient technologies and quantum materials. With over 130 publications, recognized contributions to the study of pseudogap states, and a dedication to mentoring the next generation of scientists, he embodies the qualities of an exemplary researcher. His achievements reflect both depth of expertise and breadth of influence, making him a strong candidate for the Best Researcher Award.

Xin Zhong | Superconductivity | Best Academic Researcher Award

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Prof. Xin Zhong | Superconductivity | Best Academic Researcher Award

Prof. Xin Zhong, Jilin University, China

Prof. Xin Zhong is an accomplished Associate Professor at the College of Physics, Jilin University, specializing in first-principles calculations, high-temperature superconductivity, structure prediction, electronic properties, and phase transitions. His research focuses on the structural design and physical property simulation of condensed matter under high-pressure extreme conditions. He has achieved original results in the theoretical design of novel superconductors and in the investigation of compounds with abnormal stoichiometry. With more than forty peer-reviewed articles in prestigious international journals, his work has significantly advanced the frontiers of high-pressure materials science.

Professional Profile

Scopus Profile

Education

Prof. Zhong earned a Ph.D. in Condensed Matter Physics from the State Key Laboratory of Superhard Materials at Jilin University. His doctoral research applied first-principles computational methods to predict the structures, stability, and electronic properties of materials under extreme pressures. During this period, he developed expertise in density functional theory, crystal structure prediction, and phase transition mechanisms, laying the foundation for his later breakthroughs in high-temperature superconductivity and materials design.

Experience

Following his doctorate, Prof. Zhong began his academic career as an Associate Professor at the College of Physics, Jilin Normal University, where he combined teaching with active research in condensed matter physics and superconductivity. He also undertook postdoctoral research at the Beijing Computational Science Research Center, focusing on the prediction and analysis of novel high-pressure phases, and later at the Center for High Pressure Science & Technology Advanced Research, concentrating on the theoretical design and simulation of high-pressure superconductors. He is currently a tenure-track Associate Professor at the College of Physics, Jilin University, where he leads innovative research in superconductivity and materials design.

Research Focus

Prof. Zhong’s research encompasses two main directions. The first is the theoretical design of new high-temperature superconductors under high pressure, aiming to predict stable and metastable phases capable of superconductivity at elevated temperatures, potentially approaching or surpassing room temperature. The second is the structural design and physical property simulation of compounds with abnormal stoichiometry under high pressure, which often exhibit unique electronic and structural behaviors. His work employs advanced computational techniques to identify promising candidate materials and to guide experimental synthesis, effectively bridging theoretical predictions with experimental feasibility.

Publication Top Notes

Title: Substitution of Y, Ce, and Th for La in LaBeH₈ as a Path Towards Lower Synthesis Pressures of Superconducting Hydrides
Journal: Physical Review B
Summary: This study examines the substitution of yttrium, cerium, and thorium for lanthanum in LaBeH₈, showing that such modifications can significantly lower synthesis pressures for superconducting hydrides, improving experimental accessibility.

Title: Data-Driven Search for High-Temperature Superconductors in Ternary Hydrides Under Pressure
Journal: Physical Review B
Summary: A systematic, data-driven search identifies promising ternary hydrides with favorable stability and high superconducting transition temperatures, offering clear guidance for experimental synthesis efforts.

Title: Superconductivity of Electron-Doped Chalcohydrides Under High Pressure
Journal: Physical Review Research
Summary: This work explores how electron doping enhances superconducting transition temperatures and stability in chalcohydrides under high pressure, providing a viable strategy for designing advanced superconductors.

Title: Clathrate Metal Superhydrides Under High-Pressure Conditions: Enroute to Room-Temperature Superconductivity
Journal: National Science Review
Summary: A comprehensive review of clathrate metal superhydrides, discussing stability, structure, and superconducting properties under high pressure, and outlining pathways toward room-temperature superconductivity.

Title: Unlocking the Origin of Stability and Superconductivity in LaBeH₈ at Submegabar Pressure
Journal: Physical Review B
Summary: An in-depth analysis of structural and electronic factors governing the stability and superconductivity of LaBeH₈ at submegabar pressures, revealing key bonding and lattice dynamics that influence performance.

Conclusion

Prof. Xin Zhong’s career exemplifies a sustained commitment to advancing condensed matter physics and materials science. Through the integration of first-principles calculations, structural prediction, and high-pressure simulations, he has identified novel superconductors and elucidated the mechanisms behind their stability and superconducting behavior. His pioneering contributions to high-temperature superconductivity under extreme conditions hold transformative potential for energy transmission, quantum technologies, and beyond. With an outstanding publication record, international collaborations, and a clear vision for future breakthroughs, Prof. Zhong stands out as a highly deserving candidate for this award.