Dr. Spyridon Kosionis | Quantum Optics | Research Excellence Award

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Dr. Spyridon Kosionis | Quantum Optics | Research Excellence Award

Dr. Spyridon Kosionis | University of Patras | Greece

Spyridon G. Kosionis is a theoretical and computational physicist specializing in quantum nonlinear optics, nanophotonics, and quantum technologies. His research focuses on light–matter interactions in nanostructured quantum systems, including semiconductor quantum dots, quantum wells, and hybrid plasmonic–graphene structures. He investigates nonlinear optical responses, Kerr effects, four-wave mixing, pump–probe dynamics, resonance fluorescence, photon-statistics engineering, and quantum control of excitonic systems, addressing challenges such as phonon-induced decoherence. Kosionis combines analytical modeling and advanced numerical simulations to study exciton–plasmon and exciton–phonon interactions relevant to emerging quantum computing and nanophotonic platforms. His work contributes to the development of next-generation quantum and optoelectronic technologies. He has been involved in multiple national and international research projects, focusing on coherent light–matter dynamics and theoretical plasmonics. He has supervised master’s and PhD students, guiding research in nonlinear optical processes and quantum coherence. His studies advance the understanding of quantum control and light manipulation at the nanoscale. Kosionis actively contributes to scientific journals as a reviewer and participates in international collaborations. His research supports innovations in quantum information, nanophotonics, and optoelectronic device design. He has a strong publication record, with research widely cited in the fields of quantum optics and photonics. His work bridges fundamental theory and practical applications in emerging quantum technologies. Kosionis continues to explore advanced modeling techniques for controlling quantum systems and enhancing photonic functionalities.

Profile: Google Scholar

Featured Publications

Kosionis, S. G., Terzis, A. F., Sadeghi, S. M., & Paspalakis, E. (2012). Optical response of a quantum dot–metal nanoparticle hybrid interacting with a weak probe field. Journal of Physics: Condensed Matter, 25(4), 045304.

Paspalakis, E., Evangelou, S., Kosionis, S. G., & Terzis, A. F. (2014). Strongly modified four-wave mixing in a coupled semiconductor quantum dot-metal nanoparticle system. Journal of Applied Physics, 115(8), 105.

Terzis, A. F., Kosionis, S. G., Boviatsis, J., & Paspalakis, E. (2016). Nonlinear optical susceptibilities of semiconductor quantum dot–metal nanoparticle hybrids. Journal of Modern Optics, 63(5), 451–461.

Kosionis, S. G., Terzis, A. F., Yannopapas, V., & Paspalakis, E. (2012). Nonlocal effects in energy absorption of coupled quantum dot–metal nanoparticle systems. The Journal of Physical Chemistry C, 116(44), 23663–23670.

Kosionis, S. G., Terzis, A. F., & Paspalakis, E. (2007). Optimal control of a symmetric double quantum-dot nanostructure: analytical results. Physical Review B, 75(19), 193305.

 

Prof. Dr. Jun Zhong | Modeling and Simulation | Best Researcher Award

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Prof. Dr. Jun Zhong | Modeling and Simulation | Best Researcher Award

Prof. Dr. Jun Zhong | NCIAE | China

Jun Zhong is a leading researcher in computational materials science, focusing on the atomistic modeling of materials physics and chemistry. He specializes in molecular dynamics, density functional theory, and multi-scale simulations to study adhesion, lubrication, wear mechanisms, and corrosion inhibition in metals and alloys. His work includes the development of MEAM interatomic potentials and modeling surface segregation phenomena in advanced materials. He has investigated catalyst performance, mechanical-electrical property regulation, and deformation mechanisms in metals, composites, and graphene foams. Zhong has contributed to understanding nano-scale interactions, alloy surface behaviors, and interface adhesion. His research integrates computational and theoretical approaches to address challenges in aerospace materials, nanomaterials, and renewable energy technologies. He has authored high-impact publications in journals such as Phys. Rev. B, J. Phys. Chem. C, and Applied Surface Science. He has also written influential monographs on tribology, adhesion, and nanomechanics, widely recognized in the scientific community. Zhong has presented his work at numerous international conferences and workshops. He has been elected Member of the Institute of Physics (MInstP, UK) and recognized as a world-class scientific monograph author. His teaching excellence has been acknowledged in both China and the U.S. He has led and participated in multiple national and international research projects. His studies bridge atomistic modeling and practical applications, advancing materials engineering and aerospace technologies. His research impacts surface phenomena, alloy design, and energy-related materials. Zhong continues to push the boundaries of computational materials science, integrating theory and simulation for innovative solutions.

Profile: Orcid

Featured Publications

Zhang, Y., Zhu, H., Liu, F., Zhong, J., Lu, W., Wang, C., Wang, L., Wu, Z., & Li, B. (2025). Influence and regulation of amorphous layers on phonon transport at SiC/Si interface. International Journal of Heat and Mass Transfer.

Zhang, H., Xu, S., Zou, S., Zhou, H., Ouyang, W., & Zhong, J. (2025). Gas–solid phase separation of active Brownian particles under confinement of hard walls. Nanomaterials.

Ning, Y.-Q., Zhong, J., Jie, A., Zhou, X., Xue, X.-X., Ang, Y. S., & Zhao, Y.-Q. (2025). Designing the weak Fermi pinning and ferromagnetic van der Waals contacts to bilayer CrI3. Applied Physics Letters.

Nie, G., Zhong, F., Zhong, J., Zhu, H., & Zhao, Y.-Q. (2024). Engineering photoelectric conversion efficiency in two-dimensional ferroelectric Cs2PbI2Cl2/Sc2CO2 heterostructures. Applied Physics Letters, 124, 252903.

Nie, G., Zhong, F., Zhong, J., Zhu, H., & Zhao, Y.-Q. (2024). Engineering photoelectric conversion efficiency in two-dimensional ferroelectric Cs2PbI2Cl2/Sc2CO2 heterostructures. Applied Physics Letters.

 

Dr. Byunghong Lee | Quantum Materials | Research Excellence Award

Published on by Global Physics Awards

Dr. Byunghong Lee | Quantum Materials | Research Excellence Award

Dr. Byunghong Lee | Hyundai Motor Group | South Korea

Dr. Byunghong Lee is a materials scientist with expertise in advanced electrochemical systems and clean energy technologies. His research focuses on transparent photovoltaics, perovskite solar cells, and radiative-cooling materials for energy-efficient applications. He develops electrochromic smart windows and multifunctional nanomaterials for sustainable buildings and smart-city solutions. His work includes designing high-performance metal oxides for energy harvesting and storage systems. He explores hybrid inorganic–organic materials, photonic crystal structures, and advanced carbon materials for multifunctional devices. Dr. Lee has pioneered scalable fabrication processes for low-cost and air-stable perovskite solar cells. He integrates nanostructured materials into electrodes for lithium-metal batteries and supercapacitors. His research emphasizes energy-efficient, multifunctional device architectures. He has contributed to the development of novel photocatalytic and clean-air filtration materials. Dr. Lee’s studies in photonic crystals enable tunable optical and thermal properties for smart surfaces. He has authored numerous high-impact journal papers, patents, and book chapters in energy and materials science. His work has influenced industrial applications in mobility PV and building-integrated solar systems. He actively participates in national and international research initiatives and advisory committees. Dr. Lee’s contributions bridge fundamental materials science with practical energy solutions. His innovations have earned recognition in clean energy, nanomaterials, and photonic technologies.

Profile: Scopus

Featured Publications

Keum, J., Choi, J., Kim, S., Kang, G., Lee, B., Lee, M. J., & Kim, W. (2025). Innovative dual-band energy-efficient smart windows using VO₂(M)-based Fabry–Pérot structures for solar and radiative cooling modulation. Materials Today Physics.

Jung, Y., Pyun, K. R., Yu, S., Ahn, J., Kim, J., Park, J. J., Lee, M. J., Lee, B., Won, D., Bang, J., & Ko, S. H. (2025). Laser-induced nanowire percolation interlocking for ultrarobust soft electronics. Nano Micro Letters.