Ming-Fa Lin
Taiwanese theoretical physicist From Wikipedia, the free encyclopedia
Ming-Fa Lin (Taiwanese Mandarin: 林 明發, Taiwanese Hokkien: Lîm Bîng-Huat; July 2, 1962 – August 14, 2023)[1][2] was a Taiwanese theoretical physicist. He was a distinguished professor in the Department of Physics of National Cheng Kung University in Tainan, Taiwan. His main scientific interests focus on the essential properties of carbon-related materials and low-dimensional systems. He presided over more than 10 Ministry of Science and Technology research projects. He published more than 300 peer-reviewed articles and over 10 academic books. His research principles include innovation, uniqueness, diversity, completeness, and generalization.[3]
![]() | This biographical article is written like a résumé. (April 2024) |
Ming-Fa Lin | |
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林 明發 | |
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Born | |
Died | August 14, 2023 61) | (aged
Nationality | Taiwanese |
Education | National Cheng Kung University (BS) National Tsing Hua University (PhD) |
Scientific career | |
Fields | Theoretical physics |
Institutions | National Cheng Kung University |
Thesis | Many-Body Effects in Graphite Intercalation Compounds and Graphene Tubules (1993) |
Doctoral advisor | Kenneth Wen-Kai Shung |
Education and career
He received a B.S. degree in physics from National Cheng Kung University in 1984. Later he received the M.S.,[4] and Ph.D. degrees in physics from National Tsing Hua University (Hsinchu, Taiwan) in 1986 and 1993, respectively.[5][6]
As a postdoctoral fellow in physics from the National Tsing-Hua University, he stayed until 1995. After three years in the National Chiao Tung University (Hsinchu, Taiwan), 1995–1997, he became a professor in the National Cheng Kung University. M. F. Lin was a member of the American Physical Society, American Chemical Society, Physical Society of Taiwan,[7] and Taiwan Association of University Professors.[8]
Professional experience
- 1986.08 - 1987.07: Lecturer of Physics Teaching and Research Center, Feng Chia University[9]
- 1993.08 - 1995.07: Postdoctoral fellow of Physics, National Tsing Hua University[9]
- 1995.08 - 1997.07: Postdoctoral fellow of Electrophysics, National Chiao Tung University[10]
- 1997.08 - 1998.07: Assistant Professor of Physics, National Cheng Kung University
- 1998.08 - 2001.07: Associate Professor of Physics, National Cheng Kung University
- 2001.08 - 2006.07: Professor of Physics, National Cheng Kung University
- 2006.08 - 2023.08: Distinguished Professor of Physics, National Cheng Kung University
Research fields
Professor Lin has performed research in the fields of solid-state physics, condensed matter physics, materials science, nano science, carbon nanotube, graphene, graphene nanoribbon, carbon-related materials, low-dimensional materials, semiconductor, and energy materials.
Honors and awards
- 1997.08 - 1998.07: Research Award, National Science Council, Taiwan[11]
- 1998.08 - 1999.07: Research Award, National Science Council, Taiwan[12]
- 1999.08 - 2000.07: Research Award, National Science Council, Taiwan[13][14]
- 2000.08 - 2001.07: Research Award, National Science Council, Taiwan[15]
- 2023.10: Career-long top 2% of the world's top scientists in 2022, Elsevier Data Repository[16][17]
Research highlights
Summarize
Perspective
Optical properties of graphene nanoribbons

(a) The zigzag graphene nanoribbons possess an optical selection rule of . (b) The armchair graphene nanoribbons possess an optical selection rule of .[18][7][19][20]
In 2000, Lin cooperated with Shyu to calculate the optical properties of graphene nanoribbons numerically.[21][7] The different selection rules for optical transitions in zigzag and armchair graphene nanoribbons were first reported. In 2007, these results were supplemented by a comparative study of zigzag graphene nanoribbons with single-wall armchair carbon nanotubes by Hsu and Reichl.[22] In 2011, Lin conducted Chung et al. to analyze and report the edge-dependent optical selection rules analytically.[18][7][19] In the meantime, Sasaki et al. also reported their theoretical prediction as a confirmation.[20]
The selection rule in zigzag graphene nanoribbons differs from that in armchair graphene nanoribbons. Optical transitions between the edge and bulk states enrich the low-energy region absorption spectrum ( 3 eV) with high-intensity absorption peaks. Analytical derivation of the numerically obtained selection rules was presented in 2011.[18][7][19][20] The selection rule for the incident light polarized longitudinally to the zigzag nanoribbon axis is that , where and are index number for the conduction and valence energy subbands, respectively. For armchair graphene nanoribbons, the selection rule is .[18][7][19][20]
Research projects
PI
- 1997.11 - 1998.07: Physical Properties of Carbon Nanotubes (I)[23]
- 1998.08 - 1999.07: Physical Properties of Carbon Toroids (I)[24]
- 1999.08 - 2000.07: Physical Properties of Carbon Toroids and Carbon Nanotubes (III)[25]
- 2000.08 - 2001.07: Physical Properties of Graphite-Related Systems and Two-Dimensional Modulated Electronic Systems (I)[26]
- 2001.08 - 2002.07: Physical Properties of Graphite-Related Systems and Two-Dimensional Modulated Electronic Systems (II)[27]
- 2002.08 - 2003.07: Physical Properties of Graphite-Related Systems and Two-Dimensional Modulated Electronic Systems (III)[28]
- 2003.08 - 2004.07: Many-Body Physical Properties of Carbon Nanotubes (I)[29]
- 2004.08 - 2005.07: Many-Body Physical Properties of Carbon Nanotubes (II)[30]
- 2005.08 - 2006.07: Many-Body Physical Properties of Carbon Nanotubes (III)[31]
- 2006.08 - 2007.07: Physical Properties of Low-Dimensional Carbon-Related Systems (I)[32]
- 2008.08 - 2009.07: Physical Properties of Low-Dimensional Carbon-Related Systems (II)[33]
- 2007.08 - 2008.07: Physical Properties of Low-Dimensional Carbon-Related Systems (III)[34]
- 2009.08 - 2010.07: Electronic Properties of Layered Systems in the Presence of External Fields (I)[35]
- 2010.08 - 2011.07: Electronic Properties of Layered Systems in the Presence of External Fields (II)[36]
- 2011.08 - 2012.07: Electronic Properties of Layered Systems in the Presence of External Fields (III)[37]
- 2012.08 - 2013.07: Electronic Properties of Layered Systems in the Presence of External Fields (IV)[38]
- 2013.08 - 2014.07: Physical Properties of Graphene Systems (I)[39]
- 2014.08 - 2015.07: Physical Properties of Graphene Systems (II)[40]
- 2015.08 - 2016.07: Physical Properties of Graphene Systems (III)[41]
- 2016.08 - 2017.07: Essential Properties of IV-Group 2D Systems (I)[42]
- 2017.08 - 2018.07: Essential Properties of IV-Group 2D Systems (II)[43]
- 2018.08 - 2019.07: Essential Properties of IV-Group 2D Systems (III)[44]
- 2019.08 - 2020.07: Theoretical Frameworks for Essential Properties of Layered Systems (I)[45]
- 2020.08 - 2021.07: Theoretical Frameworks for Essential Properties of Layered Systems (II)[46]
- 2021.08 - 2022.07: Theoretical Frameworks for Essential Properties of Layered Systems (III)[47]
- 2022.08 - 2023.07: The Basic Science under the Quasi-Particle Framework (I)[48]
- 2023.08 - 2024.07: The Basic Science under the Quasi-Particle Framework (II)[49]
Co-PI
- 2014.08 - 2015.07: MBE Growth, Electronic, Spintronic and Optical Studies on Topological Insulator Films and Advanced Applications (I)[50]
- 2015.08 - 2016.07: MBE Growth, Electronic, Spintronic and Optical Studies on Topological Insulator Films and Advanced Applications (II)[51]
- 2016.08 - 2017.07: MBE Growth, Electronic, Spintronic and Optical Studies on Topological Insulator Films and Advanced Applications (III)[52]
Selected publications
Summarize
Perspective
More than 300 peer-reviewed articles are published and listed in abstract and citation databases.
- Ming-Fa Lin's publications indexed by the Scopus bibliographic database. (subscription required)
- Ming-Fa Lin publications indexed by Google Scholar
The selected publications are listed.
Books
- Optical Properties of Graphene in Magnetic and Electric Fields[53]
- Theory of Magnetoelectric Properties of 2D Systems[54]
- Structure- and Adatom-Enriched Essential Properties of Graphene Nanoribbons[55]
- Handbook of Green Energy Materials[56]
- Coulomb Excitations and Decays in Graphene-Related Systems[57]
- Diverse Quantization Phenomena in Layered Materials[58]
- Geometric and Electronic Properties of Graphene-Related Systems: Chemical Bonding Schemes[59]
- Silicene-Based Layered Materials[60]
- Electronic and Optical Properties of Graphite-Related Systems[61]
- Lithium-Ion Batteries and Solar Cells: Physical, Chemical, and Materials Properties[62]
- Rich Quasiparticle Properties of Low Dimensional Systems[63]
- First-Principles Calculations for Cathode, Electrolyte and Anode Battery Materials[64]
- Lithium-Related Batteries: Advances and Challenges[65]
- Diverse Quasiparticle Properties of Emerging Materials: First-Principles Simulations[66]
- Energy Storage and Conversion Materials: Properties, Methods, and Applications[67]
- Fundamental Physicochemical Properties of Germanene-related Materials: A Theoretical Perspective[68]
- Rich Quasiparticle Properties in Layered Graphene-Related Systems[69]
- Chemical Modifications of Graphene-Like Materials[70]
Review articles
References
External links
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