Y
Yoshio Nishimoto
Researcher at Kyoto University
Publications - 37
Citations - 1315
Yoshio Nishimoto is an academic researcher from Kyoto University. The author has contributed to research in topics: Fragment molecular orbital & Density functional theory. The author has an hindex of 15, co-authored 32 publications receiving 1014 citations. Previous affiliations of Yoshio Nishimoto include Nagoya University.
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In Operando X-ray Absorption Fine Structure Studies of Polyoxometalate Molecular Cluster Batteries: Polyoxometalates as Electron Sponges
Heng Wang,Shun Hamanaka,Yoshio Nishimoto,Stephan Irle,Toshihiko Yokoyama,Hirofumi Yoshikawa,Kunio Awaga +6 more
TL;DR: X-ray absorption near-edge structure analyses demonstrate the formation of a super-reduced state of the POM, namely, [PMo(12)O(40)](27-), which stores 24 electrons, and this electron number can explain the large capacity of thePOM-MCBs.
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Super-Reduced Polyoxometalates: Excellent Molecular Cluster Battery Components and Semipermeable Molecular Capacitors
TL;DR: Evidence is presented that the super-reduction is accompanied by metal-metal bond formation, beginning from the 12th to 14th excess electron transferred to the cluster, and this "semiporous molecular capacitor" structure is likely the reason for the effective electron uptake in POMs.
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Growth of carbon nanotubes via twisted graphene nanoribbons
Hong En Lim,Yasumitsu Miyata,Yasumitsu Miyata,Ryo Kitaura,Yoshifumi Nishimura,Yoshifumi Nishimura,Yoshio Nishimoto,Stephan Irle,Jamie H. Warner,Hiromichi Kataura,Hisanori Shinohara +10 more
TL;DR: Through the tailoring of ribbon’s width and edge, the present finding adds a radically new aspect to the understanding of carbon nanotube formation, shedding much light on not only the future chirality tuning, but also contemporary nanomaterials engineering.
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Density-Functional Tight-Binding Combined with the Fragment Molecular Orbital Method
TL;DR: The energy and its gradient for the self-consistent-charge density-functional tight-binding (DFTB) method is developed, combined with the fragment molecular orbital (FMO) approach, FMO-DFTB, including an optional a posteriori treatment for dispersion interaction, and its accuracy as well as computational efficiency is evaluated.
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Template Effect in the Competition between Haeckelite and Graphene Growth on Ni(111): Quantum Chemical Molecular Dynamics Simulations
Ying Wang,Alister J. Page,Yoshio Nishimoto,Hu-Jun Qian,Keiji Morokuma,Keiji Morokuma,Stephan Irle +6 more
TL;DR: QM/MD simulations of ensembles of C(2) molecules on the Ni(111) terrace show that, in the absence of a hexagonal template or step edge, Haeckelite is preferentially nucleated over graphene as a metastable intermediate.