Minghu Fang | Quantum Materials | Best Research Article Award 

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Prof. Minghu Fang | Quantum Materials | Best Research Article Award 

Prof. Minghu Fang | School of Physics, Zhejiang University |  China

Prof. Minghu Fang is a Professor of Physics at Zhejiang University, specializing in strongly correlated electron systems, quantum phase transitions, unconventional superconductors, magnetic materials, and topological materials. His group has made landmark discoveries of three superconducting systems Fe(Te,Se), (Tl,K,Rb)FeₓSe₂, and TlNi₂(Se,S)₂ drawing worldwide attention in the superconductivity field. With over 180 publications and more than 6,000 citations, he has significantly advanced the understanding of non-Fermi liquid behavior and magnetotransport phenomena. His achievements have been recognized with major science prizes from the Zhejiang and Beijing governments in 2021.

Author Profile

Scopus

Early Academic Pursuits

Prof. Minghu Fang laid the foundation of his distinguished academic career through rigorous training in physics. He earned his B.S. in Physics from Anhui University (1980–1984) and further specialized in Low Temperature Physics at the University of Science and Technology of China, where he completed his Master’s degree (1986–1989). His academic excellence continued at Zhejiang University, where he obtained his Ph.D. in Condensed Physics in 1992. This strong academic background set the stage for his pioneering work in Quantum Materials and strongly correlated electron systems.

Professional Endeavors

After completing his doctoral studies, Prof. Fang joined Zhejiang University, progressing rapidly from Assistant Professor (1992–1993) to Associate Professor (1993–1996) and eventually to Professor of Physics (1996–present). His academic journey includes multiple international appointments, such as postdoctoral fellowships at Kyoto University (1998–2000, JSPS Fellow) and Tulane University, USA (2007–2008). He has also served as a Visiting Professor and Distinguished Visiting Professor at Kyoto University on multiple occasions. These professional endeavors enriched his global perspective and reinforced his standing in the Quantum Materials research community.

Contributions and Research Focus

Prof. Minghu Fang’s research focus centers on Quantum Materials, including strongly correlated electron systems, quantum phase transitions, non-Fermi liquid behavior, magnetic materials, Fe-based superconductors, Cu-oxide superconductors, and topological materials. His group has made groundbreaking contributions, particularly in the discovery of three superconducting systems: Fe(Te,Se), (Tl,K,Rb)FexSe2, and TlNi2(Se,S)2. These discoveries have had a lasting influence in the global superconductivity community. His prolific output includes more than 180 publications, with a citation count exceeding 6150 times, reflecting the broad impact of his scientific contributions.

Impact and Influence

Prof. Fang’s discoveries and insights into Quantum Materials have placed him at the forefront of international condensed matter physics. His recognition includes two prestigious Science Prizes (2021) awarded by the Zhejiang Province Government and the Beijing Government for his pioneering work in superconductivity and magnetic structures. These awards underscore his influence in shaping modern perspectives on high-temperature superconductors and related Quantum Materials.

Academic Cites

The academic community has acknowledged Prof. Fang’s research extensively, with over 6150 citations across leading journals such as Physical Review B, Physical Review Research, Advanced Functional Materials, Applied Physics Reviews, and Communications Materials. His representative publications on topics like universal scaling behaviors, magnetoresistance, nodal-net semimetals, and plasmonic effects continue to inspire researchers worldwide and advance the study of Quantum Materials.

Legacy and Future Contributions

Prof. Minghu Fang’s legacy lies in his pioneering discoveries in superconductivity and correlated electron physics. Moving forward, his research will continue to explore novel superconducting and topological systems, pushing the boundaries of Quantum Materials. By mentoring students, collaborating internationally, and leading innovative projects, he ensures that his influence extends to future generations of physicists. His future contributions are expected to further unravel the mysteries of superconductivity, magnetic phenomena, and quantum electronic phases.

Notable Publications

Scaling behavior of magnetoresistance and Hall resistivity in the altermagnet CrSb

Journal: Physical Review B

Year: 2025

Citations: 1

Plasmonic Photovoltaic Effect of an Original 2D Electron Gas System and Application in Mid-Infrared Imaging

Journal: Advanced Functional Materials

Year: 2024

Citations: 3

Negative magnetoresistance in the antiferromagnetic semimetal V₁/₃TaS₂

Journal: Chinese Physics B

Year: 2024

Citations: 1

Bulk superconductivity in transition metal oxide TaO

Journal: Physica C: Superconductivity and Its Applications

Year: 2023

Citations: 4

Superconductivity in TlBi₂ with a large Kadowaki-Woods ratio

Journal: Physical Review B

Year: 2022

Citations: 7

Large positive and negative magnetoresistance in the magnetic EuCu₄As₂ crystal

Journal: Journal of Alloys and Compounds

Year: 2022

Citations: 5

Conclusion

Prof. Minghu Fang’s career is a testament to academic excellence, international collaboration, and groundbreaking contributions to Quantum Materials research. From his early academic pursuits to his present role as a global leader in superconductivity and condensed matter physics, his work has left a profound mark on science. With a legacy defined by over 180 influential papers, multiple high-level awards, and the discovery of new superconducting systems, Prof. Fang continues to shape the direction of Quantum Materials research and will remain a central figure in advancing physics worldwide.

Samreen Rashid – Quantum Materials – Best Researcher Award 

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Ms. Samreen Rashid - Quantum Materials - Best Researcher Award 

Sungkyunkwan University - Natural Sciences Campus - South Korea 

Author Profile

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Orcid

🎓 Early Academic Pursuits

Ms. Samreen Rashid’s academic journey as a physicist began with a strong foundation in the field of science, where she developed a passion for critical thinking and problem solving. Her academic path was further enriched by her deep interest in quantum materials, which laid the groundwork for her future research endeavors. As a dedicated student, Ms. Rashid excelled in grasping complex theoretical and experimental concepts, which set the stage for her remarkable contributions to the study of quantum materials.

💼 Professional Endeavors

Ms. Samreen Rashid’s professional career is distinguished by her expertise in quantum materials, particularly in the synthesis and characterization of single crystals. She worked as a Research Assistant at Sungkyunkwan University (2018–2021), where she contributed significantly to experimental projects on quantum materials. Her role included providing guidance to undergraduate students and assisting professors with course work. She also served as a Lecturer at the University of Sargodha, Pakistan, teaching graduate-level courses, and as a Lab Scientist at NUST, Islamabad, where she conducted classical and modern physics experiments. Through her experience in academia, Ms. Rashid has developed a comprehensive skill set in project management, research, and innovation, positioning her as a leading physicist in quantum materials.

🔬 Contributions and Research Focus

Ms. Rashid’s research contributions focus on the synthesis and characterization of quantum materials, particularly the growth of single crystals like Al13Cr2, a binary quasicrystal. Her Ph.D. thesis investigates the Al-based binary quasicrystal (Al13Cr2) and its physical properties, with an emphasis on magnetic, transport, and thermal behaviors. Her work explores the coexistence of superconductivity and ferromagnetism at low temperatures, as well as the magnetic characteristics of aluminum-based quasicrystals. Ms. Rashid’s research also aims to develop phase diagrams that consider quantum criticality points (QCP), significantly advancing the field of quantum materials.

🌍 Impact and Influence

Ms. Rashid’s impact in the field of quantum materials is evident through her research on the physical properties of Al13Cr2 and other complex systems. Her work on single crystal growth and the study of quasicrystals has contributed to a better understanding of the behaviors and characteristics of quantum materials. Through her research publications and poster presentations, such as "Spectroscopic evidence for the Isotropic Superconducting Gap in LaRu3Si2," Ms. Rashid has gained recognition within the academic community. Her research not only influences her peers but also provides valuable insights for future advancements in the study of quantum materials.

🏆Academic Cites

Ms. Rashid’s research in the realm of quantum materials has been published in high-impact journals, contributing significantly to the academic discourse on quasicrystals and superconductivity. Her works, such as “Coexistence of superconductivity and ferromagnetism in SmC10 at low temperatures,” and “Synthesis and characterization of iQC Al13Cr2 phase single crystal,” are cited by researchers interested in the magnetic and transport properties of quantum materials. These citations reflect the widespread recognition of her expertise and the value of her contributions to the field.

🌟 Legacy and Future Contributions

Looking ahead, Ms. Samreen Rashid aims to continue her pioneering work in quantum materials, focusing on the synthesis of new materials and the exploration of their properties. Her future research will likely expand on her current work, particularly in the areas of superconductivity, magnetism, and quantum criticality. Through her continued dedication to advancing knowledge in quantum materials, Ms. Rashid is poised to make a lasting impact in the field of physics and materials science. Her work will undoubtedly influence the development of new quantum materials and technologies that could revolutionize various applications.

📝Quantum Materials

Ms. Samreen Rashid's expertise in quantum materials is demonstrated through her significant contributions to the study of quasicrystals and superconductivity. Her research into the growth and characterization of single crystals, such as Al13Cr2, enhances our understanding of quantum materials. With an impressive academic background and ongoing research, Ms. Rashid’s contributions to quantum materials will continue to shape the future of this evolving field.

Notable Publication

📝Coexistence of superconductivity and ferromagnetism in SmC10 at low temperatures

Authors: Rashid, S., Zafar, M.S., Emmanual, O.O., Dastgeer, G.

Journal: Journal of Alloys and Compounds

Year: 2025

Citations: 0

📝Synthesis and characterization of iQC Al13Cr2 phase single crystal

Authors: Rashid, S., Shin, S., Jang, H., Mun, E., Park, T.

Journal: Materials Letters

Year: 2022

Citations: 0

📝Enhanced AC conductivity and dielectric properties of ultrathin β-silver vanadium oxide/aniline nanowires

Authors: Rashid, S., ul Ain Javed, Q., Rashid, M.H., Kang, D.J., Bhutta, M.K.

Journal: Materials Letters

Year: 2021

Citations: 2

Xinghui li – Physical Electronics – Best Researcher Award 

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Prof Dr. Xinghui li - Physical Electronics - Best Researcher Award 

Beijing Vaccum Electronics Research Institute - China 

Author Profile

ORCID

🎓 Early Academic Pursuits

Prof. Dr. Xinghui Li began his academic journey in Physical Electronics at Xian Jiaotong University, where he completed his Bachelor's degree in 1993. Driven by a passion for advanced electronic systems, he continued his studies at the Beijing Vacuum Electronics Research Institute, earning his Master’s degree in 2000 and subsequently his PhD in 2004. His education was marked by a strong foundation in physical electronics, which laid the groundwork for his future innovations and research contributions.

💼 Professional Endeavors

Upon completing his bachelor's degree, Prof. Dr. Li began his professional career as an Assistant Engineer at the Beijing Vacuum Electronics Research Institute in 1993. Over the next several years, he advanced through positions as Engineer, Senior Engineer, and ultimately became a Senior Engineer (Professor) in 2011. His career also included an international stint as a Visiting Scholar and Associate Researcher at Northeastern University, USA, where he further expanded his expertise in physical electronics and related fields. His extensive occupational experience contributed significantly to the development of microfabrication techniques, field emission cathodes, and vacuum microelectronic devices.

🔬 Contributions and Research Focus

Prof. Dr. Xinghui Li's research focuses on microfabrication processes, field emission cathodes, and vacuum microelectronic devices, all within the broader domain of physical electronics. His contributions include innovative developments in the microfabrication of electronic components and the advancement of field emission technology. These contributions have important implications in various applications, such as advanced display technologies and high-performance electronic systems. His work has been recognized as foundational in the field, providing solutions that enhance device efficiency and reliability.

🌍 Impact and Influence

Dr. Li's influence extends beyond his immediate field, impacting the larger scientific and engineering communities. His research in physical electronics has been widely cited in prominent journals and has influenced developments in electronic device manufacturing and design. His role as a Senior Engineer and academic has also made him a mentor to many young engineers, shaping the next generation of innovators in electronic technology. Prof. Li's involvement in both academia and industry has allowed him to bridge the gap between theoretical research and practical applications, further enhancing his impact.

🏆Academic Cites

Prof. Dr. Xinghui Li’s research publications are highly regarded and frequently cited in scholarly literature. His work on vacuum microelectronics and field emission cathodes has contributed to new research directions and has served as a resource for both researchers and industry practitioners. The high citation rate of his publications underscores the relevance of his findings and his role as a leading figure in the physical electronics domain.

🌟 Legacy and Future Contributions

Looking to the future, Prof. Dr. Li continues to lead groundbreaking research that promises to advance the field of physical electronics. His legacy is one of innovation, mentorship, and significant contributions to the development of next-generation electronic devices. His continued work on microfabrication techniques and vacuum microelectronic devices positions him as a prominent leader whose contributions will shape the field for years to come. Dr. Li’s legacy will not only include his research but also his commitment to fostering growth and knowledge within the field.

📝Physical Electronics

Dr. Xinghui Li’s dedication to physical electronics has been evident throughout his career, with a focus on enhancing microfabrication and vacuum electronics. His innovative approaches in physical electronics have not only impacted industry standards but have also provided valuable insights for academic research. His ongoing research and mentorship are expected to further enrich the field of physical electronics.

Notable Publication

📝Microfabrication Technologies for Interaction Circuits of THz Vacuum Electronic Devices

Journal: Micromachines

Year: 2024

Authors: Xinghui Li, Jinjun Feng

Zeitun Akhmatov – Condensed Matter Physics – Best Researcher Award 

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Mr. Zeitun Akhmatov - Condensed Matter Physics - Best Researcher Award 

Kabardino-Balkarian State University - Russia

Author Profile

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Orcid

🎓 Early Academic Pursuits

Mr. Zeitun Akhmatov pursued his academic journey at Kabardino-Balkarian State University, where he studied in the Physics Department from 2009 to 2014 and earned his Ph.D. in Physics and Mathematics. His early academic interests were focused on fundamental aspects of condensed matter physics, which laid the groundwork for his subsequent research in this field.

💼 Professional Endeavors

From 2018 to 2024, Mr. Akhmatov served as a Senior Researcher and Senior Lecturer in the Department of Theoretical and Experimental Physics at Kabardino-Balkarian State University. His professional career has been dedicated to advancing the field of condensed matter physics, particularly through theoretical and experimental investigations. His role involved leading research projects, mentoring students, and contributing to the academic community through teaching and publications.

🔬 Contributions and Research Focus

Over the past five years, Mr. Akhmatov has made significant contributions to condensed matter physics. Notably, he demonstrated the possibility of enhancing spin-orbit coupling (SOC) in graphene through doping with cadmium and tellurium atoms, which is crucial for developing 2D topological insulators (Z. Akhmatov, Carbon, 2024). Additionally, he has advanced the understanding of band gap control in graphene and investigated the wettability of graphite surfaces, addressing key challenges in nanoelectronics (Akhmatov Z.A., JETP Letters, 2023; Akhmatov Z.A., Proceedings of the Kabardino-Balkarian State University, 2019). His work also includes precision measurement techniques for determining intercalated atom concentrations (Z.A. Ahmatov, Phys. of Part. and Nucl., 2018).

🌍 Impact and Influence

Mr. Akhmatov's research has had a substantial impact on the field of condensed matter physics. His work on enhancing SOC in graphene and controlling band gaps has opened new avenues for creating advanced materials and devices. His findings on graphene's wettability and precision measurement methods have practical implications for nanoelectronics and material science. His contributions are widely cited, reflecting his influence on both theoretical and applied aspects of condensed matter physics.

🏆Academic Cites

Mr. Akhmatov's research has garnered significant academic attention, with numerous citations highlighting the importance of his work in condensed matter physics. His publications in high-impact journals, such as Carbon and JETP Letters, have been instrumental in advancing the field and providing valuable insights into material properties and applications.

🌟 Legacy and Future Contributions

Mr. Akhmatov's legacy in condensed matter physics is characterized by his innovative research and dedication to advancing material science. His future contributions are anticipated to further enhance the understanding of graphene and other materials, particularly in the areas of spin-orbit coupling and wettability. As he continues to explore new research avenues, Mr. Akhmatov's work will likely have a lasting influence on the development of cutting-edge technologies and materials.

Notable Publication

📝The Quasi-Two-Dimensional Coefficient Inverse Problem for the Wave Equation in a Weakly Horizontally Inhomogeneous Medium with Memory

Authors: Akhmatov, Z.A., Totieva, Z.D.

Journal: Siberian Mathematical Journal

Year: 2023

📝Band Structure of Bilayer Graphene Intercalated by Potassium Atoms. Ab Initio Calculations

Authors: Akhmatov, Z.A.

Journal: JETP Letters

Year: 2023

📝Search for Hadronic Solar Axions

Authors: Akhmatov, Z.A., Berezin, S.S., Gavrilyuk, Y.M., Unzhakov, E.V., Zavrazhnov, A.Y.

Conference: Journal of Physics: Conference Series

Year: 2021

📝Experimental Setup for Determining the Surface Tension of Highly Curved Interfaces by Static and Dynamic Methods

Authors: Sergeev, I.N., Khokonov, A.Kh., Akhmatov, Z.A.

Conference: Journal of Physics: Conference Series

Year: 2020

📝Bending Vibrations of Free and Microdroplet-Loaded Graphene in the Framework of the Molecular Dynamics Method

Authors: Khokonov, A.Kh., Akhmatov, Z.A.

Conference: Journal of Physics: Conference Series

Year: 2020