Tandong Frederick Ayiseh | Quantum Physics | Best Researcher Award

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Best Researcher Award

       Tandong Frederick Ayiseh
Affiliation University of Bamenda
Country Cameroon
Scopus ID 57219663766
Documents 3
Citations 13
h-index 3
Subject Area Quantum Physics
Event Technology Scientists Awards
ORCID 0009-0007-9128-8677

Tandong Frederick Ayiseh is affiliated with the University of Bamenda, Cameroon, where his research focuses on quantum physics, molecular spectroscopy, atmospheric chemistry, and computational modeling. His published studies examine molecular interactions and solvent effects using theoretical approaches that contribute to understanding environmentally significant chemical processes and molecular systems.[1]

Abstract

Tandong Frederick Ayiseh has developed research interests in quantum physics, computational chemistry, molecular spectroscopy, and atmospheric molecular interactions. His published investigations analyze solvent cluster effects, infrared spectroscopy, binary nucleation, and environmentally significant molecular systems using theoretical computational methods. These studies improve understanding of intermolecular forces, oxidation mechanisms, and atmospheric particle formation while supporting broader scientific knowledge in physical chemistry and quantum modeling. His scholarly contributions demonstrate methodological consistency and provide useful computational insights for future investigations in atmospheric science, molecular physics, and environmental chemistry.[1][2][3]

Keywords

Quantum Physics, Computational Chemistry, Molecular Spectroscopy, Atmospheric Chemistry, Density Functional Theory, Water Clusters, Binary Nucleation, Infrared Spectroscopy, Solvent Effects, Physical Chemistry.

Introduction

The research activities of Tandong Frederick Ayiseh emphasize theoretical investigations of molecular interactions influencing atmospheric and chemical processes. His work combines computational chemistry with quantum physics to explain environmentally relevant molecular behavior, supporting improved scientific understanding through reproducible computational methodologies and published peer-reviewed studies.[1]

Research Profile

Affiliated with the University of Bamenda, Ayiseh has produced research addressing molecular spectroscopy, solvent interactions, oxidation mechanisms, and atmospheric chemistry. His Scopus-indexed publications demonstrate expertise in computational modeling techniques applied to molecular systems relevant to environmental and physical chemistry investigations.[2]

Research Contributions

His investigations provide computational evidence describing binary molecular clusters, solvent-dependent infrared spectra, and atmospheric nucleation pathways. These contributions improve theoretical understanding of intermolecular interactions while offering valuable computational reference data for researchers studying atmospheric chemistry, molecular dynamics, and quantum chemical phenomena.[3]

Publications

The research portfolio includes peer-reviewed publications examining fumaric acid-water clusters, PEHA oxidation resistance under solvent environments, and aminomethylphosphonic acid-promoted atmospheric nucleation. These publications collectively strengthen theoretical knowledge supporting environmental chemistry and computational molecular science.[1][2][3]

Research Impact

Although representing an emerging publication profile, the research has received scholarly citations reflecting scientific relevance. The studies contribute computational datasets and theoretical analyses supporting ongoing investigations in atmospheric chemistry, molecular spectroscopy, and environmentally significant reaction mechanisms.[1]

Award Suitability

The research profile demonstrates sustained contributions to computational quantum chemistry through peer-reviewed publications, measurable citation performance, and internationally indexed research outputs. These achievements align with academic recognition criteria emphasizing scientific quality, originality, and continuing contribution to fundamental research disciplines.[1]

Conclusion

Tandong Frederick Ayiseh has established an emerging research record within computational quantum chemistry and atmospheric molecular science. His published investigations provide meaningful theoretical insights, supporting continued advancement of molecular modeling, environmental chemistry, and interdisciplinary scientific research through internationally accessible scholarly publications.[1]

References

  1. Ayiseh, T. F., et al. (2025). Atmospheric implications of fumaric acid–water binary clusters. Journal of Chemical Thermodynamics.
    https://www.sciencedirect.com/science/article/abs/pii/S0021850225000011
  2. Ayiseh, T. F., et al. (2020). Infrared spectra of PEHA molecule and its resistance to oxidation in water and methanol media at 298.15 K: Solvent cluster size dependency. Journal of Molecular Modeling.
    https://doi.org/10.1007/s00894-020-04584-1
  3. Ayiseh, T. F., et al. (2024). Atmospheric implications of aminomethylphosphonic acid promoted binary nucleation of water molecules. Results in Chemistry.
    https://www.sciencedirect.com/science/article/pii/S2667312624000221
  4. Elsevier. (n.d.). Scopus author details: Tandong Frederick Ayiseh, Author ID 57219663766. Scopus.
    https://www.scopus.com/authid/detail.uri?authorId=57219663766

Shao-Chun Li | Quantum Materials | Best Researcher Award

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Prof. Shao-Chun Li | Quantum Materials | Best Researcher Award

Professor | Nanjing University | China

Prof. Shao Chun Li, affiliated with Nanjing University, is a prolific researcher whose work primarily focuses on condensed matter physics and materials science, particularly low-dimensional quantum materials. His research explores the fundamental electronic properties of transition metal dichalcogenides (TMDs) and topological materials such as WTe₂ and ZrTe₅. These materials are of significant interest due to their exotic quantum phenomena, including quantum spin Hall effect, topological insulating behavior, superconductivity, charge density waves, and pseudogap states. Notable among his contributions is the observation of a Coulomb gap in monolayer 1T’-WTe₂, which has implications for understanding electron-electron interactions in two-dimensional systems. He has also investigated potassium-intercalated Td-WTe₂ and revealed emergent superconducting properties, broadening the potential for novel quantum device applications. Furthermore, his work on 1T-TiSe₂ provided insights into charge density wave inhomogeneity and pseudogap phenomena, contributing to the broader understanding of correlated electron systems. Through detailed experimental techniques such as scanning tunneling microscopy (STM) and angle-resolved photoemission spectroscopy (ARPES), Prof. Li’s research elucidates the complex interplay of lattice, charge, and spin in quantum materials. With over 3,642 citations and an h-index of 30, his scholarly output, including 59 publications in high-impact journals like Nature Communications, Nano Letters, and Physical Review B, reflects his strong influence in the field. Prof. Li’s investigations not only deepen the fundamental understanding of quantum states of matter but also support the development of next-generation electronic and quantum technologies.

Profiles: Scopus | ORCID

Featured Publications

1. Song, Y.‑H., Jia, Z.‑Y., Zhang, D., Zhu, X.‑Y., Shi, Z.‑Q., Wang, H., Zhu, L., Yuan, Q.‑Q., Zhang, H., Xing, D.‑Y., & Li, S.‑C. (2018). Observation of Coulomb gap in the quantum spin Hall candidate single‑layer 1T′‑WTe₂. Nature Communications, 9(1). 
 Cited by: 74

2. Zhu, L., Li, Q.‑Y., Lv, Y.‑Y., Li, S.‑C., Zhu, X.‑Y., Jia, Z.‑Y., et al. (2018). Superconductivity in potassium‑intercalated Td‑WTe₂. Nano Letters, 18(10). 
Cited by: 63

3. Zhang, K.‑W., Yang, C.‑L., Lei, B., Lu, P., Li, X.‑B., Jia, Z.‑Y., Song, Y.‑H., Sun, J., Chen, X., Li, J.‑X., & Li, S.‑C. (2018). Unveiling the charge density wave inhomogeneity and pseudogap state in 1T‑TiSe₂. Science Bulletin, 63(7), 426‑432. 
Cited by: 20

Yoshitada Morikawa | Quantum Simulations | Best Researcher Award

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Prof. Dr Yoshitada Morikawa | Quantum Simulations | Best Researcher Award

Professor, The University of Osaka, Japan.

Professor Yoshitada Morikawa is a leading Japanese physicist and materials scientist specializing in quantum simulations. Born in Osaka in 1966, he currently serves as a Professor in the Department of Precision Engineering at Osaka University. With a rich academic journey spanning Kyoto University and the University of Tokyo, he has significantly contributed to computational physics, surface science, and AI-driven materials design. Professor Morikawa is known for combining quantum mechanics with machine learning to explore and optimize surface/interface phenomena, catalysis, and semiconductor behavior. His scholarly work includes over 218 peer-reviewed publications and a remarkable h-index of 49. His impact is further demonstrated through leadership roles in the Japan Society of Vacuum and Surface Science and the Physical Society of Japan. Widely respected for his visionary research and scientific leadership, Professor Morikawa is a strong advocate for a carbon-neutral society through fundamental science.

  📌Author’s Profile

🎓 Education 

Yoshitada Morikawa received his B.Sc. in Physics and Chemistry in 1989 and M.Sc. in Chemistry in 1991, both from Kyoto University. He then earned his Ph.D. in Physics in 1994 from the Institute for Solid State Physics, University of Tokyo. His education laid a robust foundation in theoretical and computational science, equipping him with the necessary tools to explore the intersections of quantum mechanics, chemistry, and material interfaces. During his doctoral studies, he held a prestigious Japan Society for the Promotion of Science (JSPS) Fellowship (DC), followed by a postdoctoral fellowship (PD) at Kyoto University. These early roles catalyzed his deep involvement in atomic-scale material analysis and first-principles simulations. Professor Morikawa’s academic path exemplifies a seamless integration of multi-disciplinary domains and a commitment to scientific rigor, establishing him as a globally recognized figure in quantum materials research and theory-driven computational modeling.

🧪 Experience 

Professor Morikawa’s career spans over three decades of distinguished service in academic and national research institutions. After his Ph.D., he joined the Joint Research Center for Atom Technology (JRCAT) and later served at the National Institute of Advanced Industrial Science and Technology (AIST). He held visiting positions at JAIST and the Technical University of Denmark. Since 2004, he has been with Osaka University, first as an Associate Professor at ISIR and then, from 2009, as a full Professor in the Graduate School of Engineering. He has supervised major projects involving surface physics, electrochemistry, and materials simulations. His leadership roles include serving as Vice President of the Japan Society of Vacuum and Surface Science and Representative of the Physical Society of Japan’s Division 9. Professor Morikawa’s vast experience in academic, industrial, and international contexts makes him a valuable leader and a mentor in materials science innovation.

🔬 Research Focus

Professor Morikawa’s research explores quantum mechanical simulations of surfaces and interfaces, targeting real-world problems in energy, catalysis, and semiconductor technology. His lab develops first-principles electronic structure methods integrated with molecular dynamics, Monte Carlo, and machine learning algorithms (including deep learning and Gaussian processes). The primary goal is to bridge the microscopic quantum world with macroscopic material properties. Applications range from designing efficient CO₂ conversion catalysts to improving fuel cell performance. His recent focus on AI-enhanced materials design supports the global drive toward a carbon-neutral society. By decoding physical origins of material behavior, he provides theoretical guidelines for improving functionality, efficiency, and sustainability. His comprehensive approach offers insights into both fundamental and applied materials science.

📚Publication Top Notes

1. Experimental and Theoretical Investigations on pH-Dependent Molecular Structure, Electronic Structure, and Absorption Spectra of Ruthenium(II) Complexes with Extended Ligand

Journal of Molecular Structure, November 2025
Contributors: Zi Ying Yeoh, Yoshitada Morikawa, Siow-Ping Tan, Mohammad B. Kassim, Siew San Tan
Summary: This work combines experimental spectroscopy and first-principles simulations to analyze how pH variation influences the molecular geometry and electronic structure of ruthenium(II) complexes. The study demonstrates that protonation states significantly affect the absorption spectra, providing insights into their electronic transitions and potential in sensing and catalytic applications.

2. VibIR-Parallel-Compute: Enhancing Vibration and Infrared Analysis in High-Performance Computing Environments

Journal of Open Source Software, April 15, 2025
Contributors: Kurt Irvin M. Rojas, Yoshitada Morikawa, Ikutaro Hamada
Summary: This publication presents a new open-source computational tool designed to improve the efficiency of vibrational and infrared spectral analysis in large-scale simulations. The tool utilizes parallel computing to accelerate data processing, enabling high-throughput simulations of complex molecular systems in quantum chemistry and materials research.

3. Stabilization of Oxygen Vacancy Ordering and Electrochemical-Proton-Insertion-and-Extraction-Induced Large Resistance Modulation in Strontium Iron Cobalt Oxides Sr(Fe,Co)Oₓ

Nature Communications, January 2, 2025
Contributors: Yosuke Isoda, Thanh Ngoc Pham, Ryotaro Aso, Shuri Nakamizo, Takuya Majima, Saburo Hosokawa, Kiyofumi Nitta, Yoshitada Morikawa, Yuichi Shimakawa, Daisuke Kan
Summary: This collaborative study investigates resistance changes in Sr(Fe,Co)Oₓ caused by reversible proton insertion and oxygen vacancy ordering. Using both experimental data and theoretical modeling, it uncovers mechanisms relevant to next-generation memory and switching devices based on complex oxides.

4. CO Hydrogenation Promoted by Oxygen Atoms Adsorbed onto Cu(100)

Journal of Physical Chemistry C, 2024
Contributors: K. Nagita, K. Kamiya, S. Nakanishi, Y. Hamamoto, Y. Morikawa
Summary: This research explores how the presence of adsorbed oxygen atoms on a copper (100) surface alters the catalytic pathway for carbon monoxide hydrogenation. The study combines surface science experiments and density functional theory to propose a more efficient CO-to-methanol conversion mechanism, relevant for sustainable fuel production.

5. Effect of Fluorine Substitution on the Electronic States and Conductance of CuPc on Cu(100)

Applied Surface Science, 2024
Contributors: H. Okuyama, S. Kuwayama, S. Hatta, T. Aruga, Y. Hamamoto, T. Shimada, I. Hamada, Y. Morikawa
Summary: This paper investigates the electronic behavior of copper phthalocyanine (CuPc) molecules modified with fluorine atoms when adsorbed on a Cu(100) surface. The study reveals how fluorine substitution modifies the molecule–metal interaction, enhancing electronic tunability for organic semiconductor and device engineering applications.

🏆 Conclusion 

Professor Yoshitada Morikawa is highly suitable for the Best Researcher Award, especially for awards that prioritize:

  • Long-term scholarly excellence,

  • Interdisciplinary research, and

  • Cutting-edge integration of AI with quantum materials science.

His career is marked by rigorous academic scholarship, leadership in the scientific community, and a forward-looking research agenda tackling environmental and energy-related grand challenges.