Takimoto Daisuke

写真a

Title

Associate Professor

Researcher Number(JSPS Kakenhi)

60806529

Homepage URL

https://takimotodai.wixsite.com/daitaki

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Current Affiliation Organization 【 display / non-display 】

  • Duty   University of the Ryukyus   Faculty of Science   Chemistry, Biology and Marine Science   Associate Professor  

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University 【 display / non-display 】

  • 　
    -
    2017

    Shinshu University     Graduated

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Graduate School 【 display / non-display 】

  • 　
    -
    2017.03

    Shinshu University    Doctor's Course  Completed

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External Career 【 display / non-display 】

  • 2016.04
    -
    2017.03

     

  • 2017.04
    -
    2017.09

     

  • 2017.10
    -
    2019.03

     

  • 2019.04
    -
    2020.09

     

  • 2020.10
    -
    2024.01

     

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Research Interests 【 display / non-display 】

  • Materials and Chemical Engineering

  • Electrochemical Engineering

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Research Areas 【 display / non-display 】

  • Manufacturing Technology (Mechanical Engineering, Electrical and Electronic Engineering, Chemical Engineering) / Catalyst and resource chemical process

  • Nanotechnology/Materials / Inorganic compounds and inorganic materials chemistry

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Published Papers 【 display / non-display 】

  • Platinum nanosheets synthesized via topotactic reduction of single-layer platinum oxide nanosheets for electrocatalysis

    滝本 大裕, 當間 志乃, 須田 祐矢, 白倉 智基, 都倉 勇貴, 福田 勝利, 松本 匡史, 今井 英人, 杉本 渉

    Nature Communications ( Springer Nature )  14   2023 [ Peer Review Accepted ]

    Type of publication: Research paper (scientific journal)

    　View Summary

    Increasing the performance of Pt-based electrocatalysts for the oxygen reduction reaction (ORR) is essential for the widespread commercialization of polymer electrolyte fuel cells. Here we show the synthesis of double-layer Pt nanosheets with a thickness of 0.5 nm via the topotactic reduction of 0.9 nm-thick single-layer PtOx nanosheets, which are exfoliated from a layered platinic acid (HyPtOx). The ORR activity of the Pt nanosheets is two times greater than that of conventionally used state-of-the-art 3 nm-sized Pt nanoparticles, which is attributed to their large electrochemically active surface area (124 m² g⁻¹). These Pt nanosheets show excellent potential in reducing the amount of Pt used by enhancing its ORR activity. Our results unveil strategies for designing advanced catalysts that are considerably superior to traditional nanoparticle systems, allowing Pt catalysts to operate at their full potential in areas such as fuel cells, rechargeable metal–air batteries, and fine chemical production.

  • Zero-Overpotential Redox Reactions of Quinone-Based Molecules Confined in Carbon Micropores.

    Takimoto D, Suzuki K, Futamura R, Iiyama T, Hideshima S, Sugimoto W

    ACS applied materials & interfaces ( ACS applied materials & interfaces )  14 ( 27 ) 31131 - 31139   2022.07 [ Peer Review Accepted ]

    Type of publication: Research paper (scientific journal)

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  • Vertically aligned MXene bioelectrode prepared by freeze-drying assisted electrophoretic deposition for sensitive electrochemical protein detection

    Sho Hideshima, Yuta Ogata, Daisuke Takimoto, Yury Gogotsi, Wataru Sugimoto

    Biosensors and Bioelectronics     2024.04 [ Peer Review Accepted ]

    Type of publication: Research paper (scientific journal)

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  • Confinement Effects on the Rate Performance of Redox Active Molecules for Pseudocapacitive Flowable Electrodes

    Daisuke TAKIMOTO , Keisuke SUZUKI, Sho HIDESHIMA, Wataru SUGIMOTO

    Electrochemistry   91 ( 4 ) 047005   2023.04 [ Peer Review Accepted ]

    Type of publication: Research paper (scientific journal)

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  • Origin of the Adsorption-Controlled Redox Behavior of Quinone-Based Molecules: Importance of the Micropore Width

    Daisuke TAKIMOTO, Keisuke SUZUKI, Sho HIDESHIMA, Wataru SUGIMOTO

    Electrochemistry   91 ( 7 ) 077006   2023 [ Peer Review Accepted ]

    Type of publication: Research paper (scientific journal)

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Other Papers 【 display / non-display 】

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Presentations 【 display / non-display 】

  • Oxygen evolution reaction of NiO nanowalls with a three-dimensional framework

    滝本 大裕

    PRiME2020  2020.10  -  2020.10 

  • Synthesis of conductive nano-sized Magnéli-phase Ti4O7 with a core@shell structure

    Daisuke Takimoto, Y. Toda, S. Tominaka, D. Mochizuki, W. Sugimoto

    The 13th Pacific Rim Conference of Ceramic Societies (PACRIM13)  2019.10  -  2019.10 

  • Morphological effects on surface oxidation tolerance of metallic nanosheets

    Daisuke Takimoto, D. Mochizuki, S. Hideshima, W. Sugimoto, Q. Yuan, N. Takao, T. Itoh, T. V. T. Duy, T. Ohwaki, H. Imai

    236th ECS Meeting  2019.10  -  2019.10 

  • 燃料電池用電極触媒に向けたコアシェル構造を設けた金属ナノシートの調製

    滝本大裕, 望月大, 杉本渉

    中部化学関係学協会支部連合秋季大会講演予稿集  2018.11  -  2018.11 

  • Synthesis of Core-Shell Nanosheets Electrocatalysts for the Oxygen Reduction Reaction

    Daisuke Takimoto

    3rd International Conference on Emerging Advanced Nanomaterials  2018.10  -  2018.10 

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Academic Awards 【 display / non-display 】

  • 論文賞

    2020.12    

    Winner: Tomohiro YOSHIDA, Daisuke TAKIMOTO, Dai MOCHIZUKI, and Wataru SUGIMOTO

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Grant-in-Aid for Scientific Research 【 display / non-display 】

  • Synthesis of three-dimensional architecture composed of two-dimensional nanowalls

    Grant-in-Aid for Early-Career Scientists

    Project Year: 2018.04  -  2020.03 

    Investigator(s): Takimoto Daisuke 

    Direct: 2,300,000 (YEN)  Overheads: 2,990,000 (YEN)  Total: 690,000 (YEN)

    　View Summary

    In this study, a new electrocatalyst with a three-dimensional architecture composed of a framework of NiO nanowalls was prepared. The electrocatalytic activity of three-dimensional architecture was higher than that of nanoparticles. The result strongly indicates that the 3D structure with 2D nanowall is a superior design for electrocatalyst. Considering the diffusion path of evolved molecules, the enhanced activity could also be attributed to the meso pore nature of 3D-NiO.

  • Grant-in-Aid for JSPS Fellows

    Project Year: 2016.04  -  2018.03 

    Direct: 2,300,000 (YEN)  Overheads: 2,300,000 (YEN)  Total: 0 (YEN)

  • Grant-in-Aid for JSPS Fellows

    Project Year: 2016.04  -  2018.03 

    Direct: 2,300,000 (YEN)  Overheads: 2,300,000 (YEN)  Total: 0 (YEN)

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SDGs 【 display / non-display 】

  • 燃料電池・電気化学的浄水化技術

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