Takahashi, Hidetoshi

写真a

Affiliation

Faculty of Science and Technology, Department of Mechanical Engineering (Yagami)

Position

Assistant Professor/Senior Assistant Professor

 

Books 【 Display / hide

  • マイクロニードルの製造と応用展開

    高橋英俊, 許允禎, CMC出版, 2016.10

    Scope: 回転傾斜露光によるマイクロニードルアレイの作製

  • 昆虫ミメティックス~昆虫の設計に学ぶ~

    下澤楯夫・針山孝彦(監修), NTS出版, 2008

    Scope: “昆虫飛翔研究用の昆虫型羽ばたき機,”

Papers 【 Display / hide

  • Reconfigurable Surface Plasmon Resonance Photodetector with a MEMS Deformable Cantilever

    M Oshita, H Takahashi, Y Ajiki, T Kan

    ACS Photonics  2020

  • A MEMS-based measurement system for evaluating the force-length relationship of human induced pluripotent stem cell-derived cardiomyocytes adhered on a substrate

    K Matsudaira, H Takahashi, KH Shoji, TV Nguyen, T Tsukagoshi, ...

    Journal of Micromechanics and Microengineering  2019

  • Highly sensitive and low-crosstalk angular acceleration sensor using mirror-symmetric liquid ring channels and MEMS piezoresistive cantilevers

    H Takahashi, T Kan, A Nakai, T Takahata, T Usami, I Shimoyama

    Sensors and Actuators A: Physical 287, 39-47 (Sensors and Actuators, A: Physical)  287   39 - 47 2019

    ISSN  09244247

     View Summary

    © 2019 This paper describes an angular acceleration sensor that uses liquid ring channels and piezoresistive cantilevers. The detection of fluidic rotation has attracted attention as a sensing principle for angular acceleration due to the simple structure and potentially low power consumption of devices that use said principle. Although the existing angular acceleration sensors that use this sensing principle have the potential for high sensitivity to angular acceleration about the target axis, crosstalk is an issue—specifically, crosstalk with angular accelerations about other axes and with linear acceleration. Here, we propose an angular acceleration sensor that uses a MEMS piezoresistive cantilever as the sensing element and two mirror-symmetric ring channels. This mirror symmetry cancels out the signals due to accelerations about the other axes, while the signal for the angular acceleration about the target axis is doubled. The experimental results show that the sensitivity to other axial angular accelerations and linear acceleration is sufficiently small. The obtained sensitivity for the angular acceleration is as high as 3.1 × 10 −4 (rad/s 2 ) -1 , similar to theoretical predictions. This value for the sensitivity is maintained over a range of frequencies from 0.1 Hz to 100 Hz. Therefore, the proposed sensor is suitable for practical angular acceleration detection applications.

  • Sensor

    I Shimoyama, K Matsumoto, BK Nguyen, H Takahashi, MD Nguyen, ...

    US Patent App. 10/234,429  2019

  • An MRI-Compatible Force Sensor with Enclosed Air Using Pressure Transmission

    D Akutagawa, T Izumizaki, M Hori, H Takahashi, I Shimoyama, T Dohi

    2019 IEEE 32nd International Conference on Micro Electro Mechanical Systems … (Proceedings of the IEEE International Conference on Micro Electro Mechanical Systems (MEMS))  2019-January   803 - 806 2019

    ISSN  9781728116105

     View Summary

    © 2019 IEEE. We fabricated an MRI-compatible force sensor with enclosed air using pressure transmission. The fabricated force sensor consists of a contact portion, sensing portions, and connecting pipes. When force was applied to the contact portion, the internal air pressure increased with a deformation of the contact portion, and is transmitted to the sensing portion through the connecting pipes. In the sensing portion, the change in air pressure is detected by a change in the resistance of a piezoresistive cantilever. Since using this air pressure transmission, the sensing portion can be placed away from the magnet of the MRI. Therefore, the force sensor does not interfere with the magnetic field, and it can be used in the magnet of an MRI.

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Papers, etc., Registered in KOARA 【 Display / hide

Research Projects of Competitive Funds, etc. 【 Display / hide

  • マイクロスプリングを利用した昆虫足裏反力計測フォースプレートの創成

    2020.07
    -
    2023.03

    MEXT,JSPS, Grant-in-Aid for Scientific Research, 高橋 英俊, Grant-in-Aid for Challenging Research (Exploratory), Principal Investigator

  • Development of a Pitot tube type flow sensor for biologging of marine animals

    2020.04
    -
    2024.03

    MEXT,JSPS, Grant-in-Aid for Scientific Research, 高橋 英俊, Grant-in-Aid for Scientific Research (B), Principal Investigator

  • in vitro model for interaction of skeletal muscle fiber and vessel

    2018.06
    -
    2021.03

    The University of Tokyo, 森本 雄矢, 加藤みどり, 長田 翔伍, 高橋 英俊, Challenging Research (Exploratory)

  • 3D MEMS photolithography using difference in refractive index of UV curable material

    2018.06
    -
    2020.03

    The University of Tokyo, 高橋 英俊, 江島 広貴, 菅 哲朗, Challenging Research (Exploratory)

  • Study on THz Spectroscopy Using MEMS Chiral Metamaterial

    2018.04
    -
    2021.03

    The University of Electro-Communications, 菅 哲朗, 小西 邦昭, 神田 夏輝, 岩瀬 英治, 高橋 英俊, Grant-in-Aid for Scientific Research (B)

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Courses Taught 【 Display / hide

  • SPECIAL LECTURE SERIES ON MULTIDISCIPLINARY AND DESIGN SCIENCE

    2021

  • ROBOTICS / MECHATRONICS

    2021

  • MEMS: DESIGN AND FABRICATION

    2021

  • MECHANICAL ENGINEERING PROJECT

    2021

  • INDEPENDENT STUDY ON INTEGRATED DESIGN ENGINEERING

    2021

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