Prof. Dr. Ming-Der Su | Theoretical Chemistry | Best Researcher Award

Prof. Dr. Ming-Der Su | Theoretical Chemistry | Best Researcher Award

Prof. Dr. Ming-Der Su is a distinguished full professor affiliated with the Department of Applied Chemistry at National Chiayi University and the Department of Medicinal and Applied Chemistry at Kaohsiung Medical University, Taiwan. Renowned for his expertise in theoretical inorganic and organometallic chemistry, he has made significant contributions to advancing computational methods and molecular modeling in chemical research. His academic journey spans prestigious institutions in the United Kingdom, United States, and Taiwan, where he developed a deep understanding of reaction mechanisms and molecular electronic structures. Through teaching, mentoring, and pioneering research, he continues to influence and inspire the global chemistry community.

National Chiayi University, Department of Applied Chemistry | Taiwan

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Educational Background

Prof. Su earned his Ph.D. (1988–1991) in chemistry from the University of Cambridge (UK), under the supervision of Prof. Nicholas C. Handy. He then pursued multiple prestigious postdoctoral research appointments: with Prof. R. D. Bach and Prof. H. B. Schlegel at Wayne State University (USA) from 1991 to 1993, with Prof. Michael A. Robb at London University (UK) from 1994 to 1995, and with Nobel Laureate Prof. Roald Hoffmann at Cornell University (USA) in 1996. These experiences provided him with a strong international research foundation in computational and theoretical chemistry.

Research Focus

Prof. Su’s primary research interests lie in theoretical research in inorganic chemistry and organometallic chemistry. His work involves computational modeling, reaction mechanism studies, and molecular electronic structure analysis, contributing to a deeper understanding of chemical bonding and reactivity in metal-containing systems.

Notable Publications

Reactivity of Ammonia in 1,2-Addition to Group 13 Imine Analogues with G13–P–Ga Linkages: The Electronic Role of Group 13 Elements

Author: Zheng-Feng Zhang; Ming-Der Su

Journal: Molecules

Year: 2025

Insights into the Factors Controlling the Origin of Activation Barriers in the [2 + 2] Cycloaddition Reactions of Heavy Imine-like Molecules Featuring a Ge=Group 15 Double Bond with Heterocumulenes

Author: Zheng-Feng Zhang; Ming-Der Su

Journal: Molecules

Year: 2025

A theoretical study of the reactivity of ethene and benzophenone with a hyper-coordinated alkene containing a so-called E=E (E = C, Si, Ge, Sn, and Pb) unit

Author: Yang MC; Su MD

Journal: Dalton Transactions (Cambridge, England : 2003)

Year: 2020

Theoretical Study of the Photolysis Mechanisms of Methylpentaphenyldimetallanes (Ph₃MM′Ph₂Me; M, M′ = Si and Ge)

Author: Ming-Der Su

Journal: Molecules

Year: 2018

Conclusion

Prof. Ming-Der Su’s career embodies a commitment to advancing theoretical and computational chemistry while nurturing future generations of scientists. His cross-disciplinary collaborations, innovative research methodologies, and dedication to education have positioned him as a respected leader in inorganic and organometallic chemistry. Through his academic appointments, he continues to contribute to the development of cutting-edge chemical research in Taiwan and internationally. His work not only expands scientific knowledge but also provides a foundation for applications in catalysis, materials science, and molecular design. Prof. Su’s enduring contributions ensure his influence will be felt in the chemistry community for years to come.

Dr. Z’hen’yan Xia – Physical Chemistry- Best Researcher Award

Dr. Z’hen’yan Xia – Physical Chemistry- Best Researcher Award

Tianjin University – China

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🏆 Academic Achievements

Dr. Xia has served as the Principal Investigator (PI) for multiple projects funded by the National Natural Science Foundation, reflecting his leadership in cutting-edge research. His work has been published in prestigious scientific journals, including Physics of Fluids, Computational Materials Science, and Colloids and Surfaces A: Physicochemical and Engineering Aspects, showcasing his contributions to the field.

🌀 Areas of Expertise

Dr. Z’hen’yan Xia specializes in Fluid Mechanics, Molecular Dynamics, Physical Analytical Chemistry, and Advanced Materials. His work combines both theoretical research and engineering applications, pushing the boundaries of fluid flow control and molecular interactions at macro and nanoscale levels.

🔬 Research Interests

Dr. Xia’s research focuses on two primary areas. The first is turbulent flow control and fluid instability, where he conducts theoretical research and engineering applications aimed at improving fluid flow efficiency in various engineering systems. His second area of focus is the molecular dynamics of fluid-micronano structures, where he explores the fundamental interactions between fluids and micronano surfaces, optimizing fluid behavior at microscopic levels.

🚀 Research Innovations

Reducing the contact time between liquid droplets and solid surfaces is a crucial challenge in many engineering applications. While extensive studies have been conducted on droplet impact mechanisms, there is still a lack of systematic research on nanodroplet behavior on superhydrophobic surfaces with square ridges. Dr. Xia’s research addresses this gap by investigating nanodroplet interactions on both superhydrophobic planes and structured surfaces. His findings reveal that when nanodroplets impact a superhydrophobic plane, the droplet contraction time determines the total contact time. However, when nanodroplets impact superhydrophobic surfaces with square ridges, the critical factor influencing contact time is the detachment time as the droplet lifts off. Additionally, his research highlights that nanodroplets exhibit stronger adhesion to solid surfaces compared to larger droplets and are also more resistant to deformation and splitting, a characteristic not commonly observed in macroscopic droplets. Dr. Xia introduces the critical rebound Weber number (We) to evaluate how square ridges enhance droplet rebound performance. His study demonstrates that a moderate increase in ridge height helps in reducing contact time, while narrower ridges are more effective in minimizing contact duration and facilitating droplet splitting.

Notable Publications📄


📄An analysis of the contact time of nanodroplets impacting superhydrophobic surfaces with square ridges
  • Authors: HuaiYing Shi, XuanQiang Hou, HaiJue Xu, YuChuan Bai, ZhenYan Xia

  • Journal: Computational Materials Science

  • Year: 2024

📄Experimental investigation of the impact of viscous droplets on superamphiphobic surfaces
  • Authors: Yaolin Tai, Haijue Xu, Yuchuan Bai, Linan Li, Shibin Wang, Zhenyan Xia

  • Journal: Physics of Fluids

  • Year: 2022

📄Research on the contact time of a bouncing microdroplet with lattice Boltzmann method
  • Authors: Yaolin Tai, Yang Zhao, Xinyu Guo, Linan Li, Shibin Wang, Zhenyan Xia

  • Journal: Physics of Fluids

  • Year: 2021