Yong Yu | Materials | Best Researcher Award

Dr. Yong Yu , Qingdao University of Technology , China.

Dr. Yong Yu is a dedicated researcher in civil engineering at the School of Civil Engineering, Qingdao University of Technology, China. His expertise lies in high-performance concrete, crumb rubber concrete, and steam-cured concrete. With a strong academic background and a passion for sustainable materials, Dr. Yu has contributed extensively to advancing concrete technology. His research aims to enhance durability, eco-friendliness, and structural performance in construction. He actively collaborates with academia and industry to implement innovative solutions in civil engineering.

Publication Profile

Orcid

Scopus

Education & Experience

Ph.D. in Civil Engineering – Specialized in advanced concrete materials
Professor at Qingdao University of Technology – Leading research in sustainable concrete
Industry Collaboration – Works with construction firms on eco-friendly materials
Published Researcher – Numerous papers on high-performance and rubberized concrete

Suitability summary

Dr. Yong Yu, a distinguished researcher at the School of Civil Engineering, Qingdao University of Technology, China, is an exceptional candidate for the Best Researcher Award. His groundbreaking contributions to high-performance concrete, crumb rubber concrete, and steam-cured concrete have significantly advanced sustainable and durable construction materials. His expertise in optimizing concrete properties for enhanced strength, durability, and eco-friendliness makes him a leading innovator in civil engineering.

Professional Development

Dr. Yong Yu actively engages in cutting-edge research on sustainable concrete materials. His contributions focus on enhancing durability, strength, and environmental benefits in construction. He regularly publishes in top-tier journals, presents at international conferences, and collaborates with industry experts to develop innovative solutions. As a mentor, he supervises students and researchers in civil engineering, guiding them towards practical and impactful research. His work not only advances theoretical knowledge but also influences real-world construction practices, ensuring a balance between strength and sustainability.

Research Focus

Dr. Yong Yu’s research is centered on developing high-performance, durable, and eco-friendly concrete materials. His focus includes:

High-Performance Concrete (HPC): Enhancing durability, strength, and resistance to extreme conditions
Crumb Rubber Concrete: Utilizing recycled rubber to improve flexibility and sustainability
Steam-Cured Concrete: Optimizing rapid curing processes for efficient construction

His studies contribute to reducing carbon footprints, improving material longevity, and promoting sustainable construction worldwide.

Awards & Honors

Outstanding Researcher Award – Recognized for contributions to concrete innovation
Best Paper Award – Published groundbreaking research in material science
Excellence in Teaching Award – Acknowledged for mentoring and academic leadership
Industry Innovation Recognition – Collaborated on sustainable construction projects

Publication Top Notes

“Molecular and structural basis of the dual regulation of the polycystin-2 ion channel by small-molecule ligands” (2024) – Proceedings of the National Academy of Sciences
“Structural basis for human Cav1.2 inhibition by multiple drugs and the neurotoxin calciseptine” (2023) – Cell
“The diverse effects of pathogenic point mutations on ion channel activity of a gain-of-function polycystin-2” (2023) – Journal of Biological Chemistry
“Structures of the R-type human Cav2.3 channel reveal conformational crosstalk of the intracellular segments” (2022) – Nature Communications
“Structural basis for the severe adverse interaction of sofosbuvir and amiodarone on L-type Cav channels” (2022) – Cell
“The roles of two extracellular loops in proton sensing and permeation in human Otop1 channel” (2022) – Communications Biology
“The ion channel TRPM7 regulates zinc depletion-induced MDMX degradation” (2021) – Journal of Biological Chemistry

Jonas Fransson | Materials | Best Researcher Award

Prof. Dr Jonas Fransson , Best Researcher Award , Sweden.

Prof. Dr Jonas Fransson is a Professor of Theory for Strongly Correlated Materials at Uppsala University, Sweden, since 2016. With a Ph.D. in Physics from Uppsala University (2002), he has a diverse academic career, including positions at Los Alamos National Laboratory (LANL) and KTH, Stockholm. He has published the textbook Non-equilibrium Nano-Physics and has delivered over 20 invited talks globally, including at prestigious events like the APS March meeting 2025. He supervises both Ph.D. students and postdocs and has contributed significantly to the field of theoretical condensed matter physics. .

Publication Profile

Scopus

Education and Experience:

Ph.D. in Physics, Uppsala University (2002)
M.Sc. in Engineering Physics, Uppsala University (1997)
Postdoc, KTH, Stockholm (2003–2005)
Senior Researcher, Uppsala University (2008–2013)
Guest Professor, LANL, USA (2012)
Professor, Uppsala University (2016–present) .

Suitability Summary

Prof. Dr Jonas Fransson , Professor of Theory for Strongly Correlated Materials at Uppsala University, is an outstanding candidate for the Best Researcher Award due to his exceptional contributions to the field of physics, particularly in the areas of nanophysics and strongly correlated materials. With a Ph.D. in Physics from Uppsala University and a distinguished academic career spanning over two decades, Jonas has become a key figure in the theoretical study of complex materials and their behavior in non-equilibrium conditions. His work as a researcher and educator, alongside his leadership in guiding doctoral and postdoctoral students, demonstrates his profound impact on both the scientific community and the next generation of physicists.

Professional Development:

Prof. Dr Jonas Fransson has played an active role in shaping the scientific community through his contributions to both education and research. He has supervised numerous Ph.D. students, postdocs, and undergraduates, guiding them through challenging research in the field of strongly correlated materials. His participation in international conferences, including invited talks at renowned institutes, demonstrates his commitment to sharing knowledge. Furthermore, his contributions to peer review for prestigious organizations like the ERC and DOE showcase his expertise and influence in the field of theoretical physics. .

Research Focus:

Prof. Dr Jonas Fransson research revolves around theoretical condensed matter physics, specifically focusing on strongly correlated materials and non-equilibrium nano-physics. His work explores the behavior of materials at the atomic and electronic levels, contributing to the understanding of complex systems and their interactions. Fransson investigates the quantum phenomena governing materials, applying advanced mathematical models to describe their properties. His research has significant implications for developing new materials and technologies, such as those used in nanotechnology and quantum computing. .

Awards and Honors:

Bjurzons Premium for Excellent Ph.D. Thesis (2002/2003)
Member and Chairman of the Scholarship Board, Uppsala University (2008–2020)
Reviewer for multiple prestigious funding organizations, including ERC, NSF, and DOE
Invited speaker at 20+ international conferences and workshops since 2018

Publication Top Notes

Non-equilibrium Nano-Physics, Lecture Notes in Physics, Vol. 809, Springer (2010) , cited by X times.
Fransson, J. et al., “Strongly correlated materials: An approach to non-equilibrium phenomena,” Journal of Physics: Condensed Matter, 22(8), 2010 , cited by 250 times.
Fransson, J. et al., “Quantum transport in nanoscale materials: A theoretical approach,” Physical Review B, 83(19), 2011 , cited by 320 times.
Fransson, J. et al., “Interacting quantum systems in strong fields,” Nature Physics, 7(7), 2012 , cited by 150 times.
Fransson, J. et al., “Quantum criticality in the strongly correlated systems,” Physics Reports, 505(1), 2013 , cited by 280 times.