Specialities

Fluid Mechanics、Biological physics/Chemical physics/Soft matter physics

Speciality Keywords

Fluid Mechanics (Nonlinear wave) Theory of Liquid Integral Equation Theory

Research Themes

Books

Papers

• 　Comparative study of 3D-RISM theory and molecular dynamics calculations for the free energy landscape of a hydrated dipeptide　Hiroshi Iwasaki, Satoshi Yamaguchi, Shinichi Miura　Molecular Simulation　43　13-16　1406-1411　2017
• 　A 3D-RISM integral equation study of a hydrated dipeptide　Hiroshi Iwasaki, Shinnosuke Gyoubu, Tsutomu Kawatsua, Shinichi Miuraa　Molecular Simulation　41　10-12　1015-1020　2015
• 　Numerical computations for motion of interfaces governed by triple potential well　ADVANCES IN MATHEMATICAL SCIENCE AND PHYSICS　14　2　457-464　2004
• 　A numerical computation to the American option pricing via the dicrete Morse flow　Theoretical and Applied Mechanics　52　261-266　2003
• 　Numerical calculations for the eikonal equation via the discrete Morse semiflow with Ginzburg-Landau energy　Adv. Math. Sci. Appl.　10　2　10　2001/09

Conference Presentations

• A novel method to find minimum free energy path in condense phase processes using string method combined with RISM theory(conference：EMLG/JMLG Annual Meeting 2018)(2018/11/04)
• String Method Combined With An Integral Equation The- ory Of Liquids For Minimum Free Energy Path In Condensed Phase Processes(conference：ICMS 2016)(2016/10/23)
• "A 3D-RISM integral equation study of a hydrated alanine dipeptide"(conference：ISCS2016)(2016/05/28)

Others

Arts and Fieldwork

Patent

Theme to the desired joint research

○Integral equation Theory(OZ, RISM, 3D-RISM,etc)

Grant-in-Aid for Scientific Research

○「学部向け計算科学教育におけるニーズ型教材の開発」(2014-2016)　

Competitive research funding,Contribution

Collaborative research,Consignment study

Classes (Bachelors)

○World of Physics(2018)
○World of Physics(2017)
○GS English Language for Undergraduates II (English for Science and Engineering)(2017)
○GS English Language for Undergraduates I (English for Science and Engineering)(2017)
○Fluid Dynamics(2017)
○Introduction to Information and Computational Science(2017)
○Research Work in Computational Experimental Science(2017)
○Computer Experiments 2(2017)
○Computer Experiments 1(2017)
○World of Physics(2017)
○World of Physics(2017)
○Experiments in Fundamental Physics(2017)
○World of Physics(2017)
○Fluid Dynamics(2016)
○Computer Experiments 1(2016)
○Research Work in Computational Experimental Science(2016)
○Computer Experiments 2(2016)
○World of Physics(2016)
○Experiments in Fundamental Physics(2016)
○Introduction to Information Technology(2016)
○fluid dynamics(2013)
○Computer Experiments 1(2013)
○Introduction to Information Technology(2013)
○Experiments in Fundamental Physics(2012)

Classes (Graduate Schools)

○Introduction to Frontiers of Computational Science a(2017)
○Exercise B(2017)
○Seminar B(2017)
○Introduction to Frontiers of Computational Science b(2017)
○Research Work B(2017)
○Frontiers of Material Simulation(2017)
○Frontiers of Material Simulation(2017)
○Special Topics in Frontiers of Computational Science(2017)
○Frontiers of Material Simulation(2017)
○Special Topics in Frontiers of Computational Science(2017)
○Special Topics in Frontiers of Computational Science(2017)
○Special Topics in Frontiers of Computational Science(2017)
○Frontiers of Material Simulation(2017)
○Seminar B(2016)
○Topics in Computational Science a(2016)
○Introduction to Frontiers of Computational Science a(2016)
○Introduction to Frontiers of Computational Science b(2016)
○Topics in Computational Science b(2016)
○Exercise B(2016)
○Research Work B(2016)
○Special Topics in Frontiers of Computational Science(2016)
○Frontiers of Material Simulation(2016)
○Introduction to Frontiers of Computational Science(2012)
○Seminar(2010)
○Topics in Computational Material Science(2010)
○Exercise(2010)
○Research Work(2010)
○Topics in Computational Material Science(2009)
○Seminar(2009)