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Norio Yoshida Last modified date：2020.06.19

Associate Professor / Faculty of Sciences
Department of Chemistry
Faculty of Sciences


Graduate School
Department of Chemistry
Graduate School of Sciences


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Homepage
https://kyushu-u.pure.elsevier.com/en/persons/norio-yoshida
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Academic Degree
PhD
Field of Specialization
Chemistry
Research
Research Interests
  • Theoretical study on the electronic structure of solvated molecule and biomolecule combined with statistical mechanics.
    keyword : Quantum chemistry, Statistical mechanics, Liquid state theory
    2012.04～2012.04.
Academic Activities
Books
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Reports
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1. Norio Yoshida, Takashi Imai, Saree Phongphanphanee, Andriy Kovalenko, Fumio Hirata*, Molecular Recognition in Biomolecules Studied by Statistical Mechanical Integral-Equation Theory of Liquids, Journal of Physical Chemistry B, Feature Article, 2009.10.
Papers
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1. Norio Yoshida, The Reference Interaction Site Model Integrated Calculator (RISMiCal) program package for nano- and biomaterials design, IOP Conference Series: Materials Science and Engineering, Vol. 773, 012062, 2020.01.
2. Ryosuke Ishizuka, Norio Yoshida, Extended Molecular Ornstein-Zernike Integral Equation for Fully Anisotropic Solute Molecules: Formulation in a Rectangular Coordinate System, The Journal of Chemical Physics, http://dx.doi.org/10.1063/1.4819211], 139, 084119, 2013.08, An extended molecular Ornstein-Zernike (XMOZ) integral equation is formulated to calculate the spatial distribution of solvent around a solute of arbitrary shape and solid surfaces. The conventional MOZ theory employs spherical harmonic expansion technique to treat the molecular orientation of components of solution. Although the MOZ formalism is fully exact analytically, the truncation of the spherical harmonic expansion requires at a finite order for numerical calculation and causes the significant error for complex molecules. The XMOZ integral equation is the natural extension of the conventional MOZ theory to a rectangular coordinate system, which is free from the trunca- tion of spherical harmonic expansion with respect to solute orientation. In order to show its appli- cability, we applied the XMOZ theory to several systems using the hypernetted-chain (HNC) and Kovalenko-Hirata approximations. The quality of results obtained within our theory is discussed by comparison with values from the conventional MOZ theory, molecular dynamics simulation, and three-dimensional reference interaction site model theory. The spatial distributions of water around the complex of non-charged sphere and dumbbell were calculated. Using this system, the approxi- mation level of the XMOZ and other methods are discussed. To assess our theory, we also computed the excess chemical potentials for three realistic molecules (water, methane, and alanine dipeptide). We obtained the qualitatively reasonable results by using the XMOZ/HNC theory. The XMOZ the- ory covers a wide variety of applications in solution chemistry as a useful tool to calculate solvation thermodynamics..
3. Norio Yoshida, Yasuomi Kiyota, Fumio Hirata*, The electronic-structure theory of a large-molecular system in solution: Application to the intercalation of proflavine with solvated DNA, Journal of Molecular Liquids, 159, 83, 2011.03.
4. Norio Yoshida, Saree Phongphanphanee, Yutaka Maruyama, Takashi Imai, Fumio Hirata*, Selective ion-binding by protein probed with the 3D-RISM theory, Journal of the American Chemical Society, Communication, 128, 12042, 2006.05.
5. Norio Yoshida, Shigeki Kato*, Molecular Ornstein-Zernike approach to the solvent effects on solute electronic structures in solution, The Journal of Chemical Physics, 113, 4974, 2000.09.
Presentations
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1. 吉田 紀生, Multiscale implementation of 3D-RISM to the electronic structure theory being applicable for solvated biomolecules, Pacifichem2015, 2015.12.
Membership in Academic Society
  • Biophysical Society
  • The physical society of Japan
  • Japan society for molecular science
  • The chemical society of Japan
  • The Japan association of solution chemistry


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