加賀谷 勝史
Kagaya Katsushi
研究者情報
| 職名 | 准教授 |
| 所属 | 機械電気系 |
| メールアドレス | kkagaya@mail.kitami-it.ac.jp |
| 関連ウェブサイト | https://researchmap.jp/kagaya |
学位・学歴・職歴
学位
| 博士(理学) | 自由行動の理解に向けて：ザリガニにおける自発性歩行開始の神経基盤 | 2010 |
学歴
| 2005.04 - 2010.03 | 北海道大学大学院理学研究科生物科学専攻博士課程 |
| 2003.04 - 2005.03 | 北海道大学大学院理学研究科生物科学専攻修士課程 |
| 1999.04 - 2003.03 | 北海道大学理学部生物学科 |
職歴
| 2024.04 - | 北見工業大学工学部准教授 |
| 2020.04 - 2024.03 | 東京大学大学院情報理工学系研究科情報理工学教育研究センター次世代知能科学研究部門特任研究員 |
| 2015.04 - 2020.03 | 京都大学白眉センター/フィールド科学教育研究センター(瀬戸臨海実験所)特定助教 (白眉) |
| 2014.05 - 2015.02 | Duke University, Department of Biology (Patek lab), Postdoctoral Associate |
| 2013.07 - 2014.05 | Duke University, Department of Biology (Patek lab), 日本学術振興会海外特別研究員 |
| 2012.06 - 2013.07 | University of Massachusetts Amherst, Department of Biology (Patek lab), 日本学術振興会海外特別研究員 |
| 2010.04 - 2012.05 | 北海道大学理学研究科生物科学専攻行動知能学講座(高畑研究室)学術研究員 |
担当科目・専門分野等
- 担当授業科目（学部）
- 生体工学概論 機械知能, 生体計測工学 ｴﾈﾙｷﾞｰ総合・機械知能（同時開講）, 工業英語 機械知能
- 専門分野
- 動物生理学
- 研究テーマ
- 動物の身体運動や神経活動の機構理解とそのバイオミメティクス
- 研究内容キーワード
- 自発性、ソフトロボット、超高速運動、自己組織化臨界
- 所属学会
- 日本動物学会, 日本比較生理生化学会
著書
| タイトル／出版社等 |
|---|
海産無脊椎動物多様性学 : 100年の歴史とフロンティア
京都大学学術出版会, 2022-11 |
学術論文等
学術論文
| 論文名／掲載誌名等 | 掲載年月 | |
|---|---|---|
Electromyographic Characterization of Walking Behavior Initiated Spontaneously in Crayfish
Zoological Science, 25, 8
|
2008-08 | |
Readiness Discharge for Spontaneous Initiation of Walking in Crayfish
Journal of Neuroscience, 30, 4, 1348 - 1362
|
2010-01 | |
Neural Mechanism for Generating and Switching Motor Patterns of Rhythmic Movements of Ovipositor Valves in the Cricket
Journal of Insect Physiology, 57, 2, 326
|
 |
2011-02 |
Sequential Synaptic Excitation and Inhibition Shape Readiness Discharge for Voluntary Behavior
Science, 332, 6027, 365 - 368
|
|
2011-04 |
ザリガニに見る自発性行動制御の神経回路機構
比較生理生化学
|
2012-02 | |
Feed-forward Motor Control of Ultrafast, Ballistic Movements
Journal of Experimental Biology, 219, 3, 319 - 333
|
|
2016-02 |
Preliminary Report on the Shell Fighting Behaviour of Pagurus filholi in Two Different Climate Regions in Japan
Crustaceana, 90, 14, 1803 - 1808
|
|
2017-11 |
A General Model of Locomotion of Brittle Stars with a Variable Number of Arms
Journal of the Royal Society Interface, 17, 162, 20190374
|
|
2020-01 |
Estimating the Asymptomatic Proportion of Coronavirus Disease 2019 (COVID-19) Cases on Board the Diamond Princess Cruise Ship, Yokohama, Japan, 2020
Eurosurveillance, 25, 10
|
2020-03 | |
Individual Behavioral Type Captured by a Bayesian Model Comparison of Cap Making by Sponge Crabs
PeerJ
|
|
2020-05 |
Effect of the Wet Market on the Coronavirus Disease (COVID-19) Transmission Dynamics in China, 2019-2020
International Journal of Infectious Diseases
|
|
2020-06 |
Early Epidemiological Assessment of the Transmission Potential and Virulence of Coronavirus Disease 2019 (COVID-19) in Wuhan City, China, January–February, 2020
BMC Medicine, 18, 1, 217
|
|
2020-07 |
Chromosome Instability Induced by a Single Defined Sister Chromatid Fusion
Life Science Alliance, 3, 12, e202000911
|
|
2020-10 |
Skeletonizing the Dynamics of Soft-Continuum Body from Video
Soft Robotics, 9, 2, 201-211
|
2021-04 | |
Instantaneous Force Generation Mechanism Based on the Striking Motion of Mantis Shrimp - Analytical and Experimental Verification of the Increase in Instantaneous Force Using Exoskeleton Spring Mechanism
IEEE Robotics and Automation Letters, 6, 4, 1
|
|
2021-10 |
Instantaneous Force Generation Mechanism Based on the Striking Motion of Mantis Shrimp Design and Control Method of Cavitation by Simulation and Experiment
IEEE Robotics and Automation Letters, 7, 4, 9342-9349
|
|
2022-10 |
環境へと開く脳・身体 —ザリガニとソフトロボットタコ腕—
人工知能, 37, 6, 721-726
|
2022-11 | |
Embodied Latch Mechanism of the Mandible to Power at an Ultrahigh Speed in the Trap-jaw Ant Odontomachus kuroiwae
Journal of Experimental Biology, 226, 10
|
2023-05 | |
A Design Method for Instantaneous Force Generation Based on a Mantis Shrimp With Exoskeleton Spring
IEEE/ASME Transactions on Mechatronics, 29, 2, 960-971
|
|
2024-04 |
A Design Method for Instantaneous Force Generation Based on a Mantis Shrimp With Exoskeleton Spring
IEEE/ASME Transactions on Mechatronics, 29, 2, 960–971
|
|
2024-04 |
Multiple power laws and scaling relation in exploratory locomotion of the snail Tegula nigerrima
Journal of Robotics and Mechatronics, 37, 1, 99
|
|
2025-02 |
Multiple Power Laws and Scaling Relation in Exploratory Locomotion of the Snail Tegula nigerrima
Journal of Robotics and Mechatronics, 37, 1, 99-104
|
|
2025-02 |
参考論文
| 論文名／掲載誌名等 | 掲載年月 |
|---|---|
Self-Organized Criticality Explains Readiness Potential
arXiv, 2209.09075
|
2024-08 |
国際会議発表論文
| 発表題名 | 発行年月 |
|---|---|
Echo state property and memory in octopus-inspired soft robotic arm
2022 IEEE 5th International Conference on Soft Robotics (RoboSoft), IEEE Robotics & Automation Society, Edinburgh, Scotland
|
2022-04 |
Signatures of self-organized criticality in spontaneous walking behavior of Porcellio scaber
The 11th International Symposium on Adaptive Motion of Animals and Machines, AMAM2023 organizing committee
|
2023-06 |
The Musculoskeletal System of the Pistol Shrimp and its Fluid Motion as a Normative Model Prototype and Initial Evaluation of Cavitation Beam Generation Mechanism
2025 International Conference on Advanced Robotics and Mechatronics (ICARM), IEEE, Portsmouth, United Kingdom
|
2025-08 |
講演発表
| 発表題名 | 発表年月 |
|---|---|
Scaling laws in behavioral initiation in crayfish and mantis shrimp
The Japanese Society for Comparative Physiology and Biochemistry, 名古屋
|
2024-09 |
Scaling laws in behavioral initiation in crayfish
The Japanese Society for Comparative Physiology and Biochemistry, Nagoya
|
2024-09 |
準備電位の自己組織化臨界による説明
理論と実験, 広島
|
2024-10 |
準備電位の自己組織化臨界による説明
理論と実験, 広島
|
2024-10 |
準備電位の自己組織化臨界による説明
第三回旭川医科大学・北見工業大学医工連携ワークショップ, 旭川
|
2025-01 |
準備電位の自己組織化臨界による説明
旭川医科大学・北見工業大学 医工連携ワークショップ, 旭川
|
2025-01 |
ザリガニ神経系における自発と反射機構
複雑系マイクロシンポジウム, 北見
|
2026-03 |