ホーム > 松村 崇志/ MATSUMURA, Takashi

松村 崇志

ALUMNI 2026年11月現在、筑波大学が主たる所属機関ではありません

MATSUMURA, Takashi

琉球大学 , 理学部 海洋自然科学科生物系 , 助教
University of the Ryukyus , Faculty of Science Department of Chemistry, Biology and Marine , Assistant Professor

  1. 1. Ascorbate Recycling as a Molecular Redox Capacitor: A Sulfur-Centered Perspective on Dehydroascorbate Reduction in Biological Systems Rika Heshiki; Kakeru B. Mizumoto; Riko F. Naomasa; Takashi MatsumuraHideo Yamasaki
      Cells (2026) Semantic Scholar
  2. 2. Stress-induced organismal death is genetically regulated by the mTOR-Zeste-Phae1 axis Takashi Matsumura; Masasuke Ryuda; Hitoshi Matsumoto; Takumi Kamiyama (+4 著者) Ryusuke Niwa
      Proceedings of the National Academy of Sciences 127: (2025) Semantic Scholar
  3. 3. Drosophila cytokine GBP2 exerts immune responses and regulates GBP1 expression through GPCR receptor Mthl10. Masaya Ono; Takashi Matsumura; Eui Jae Sung; Takashi Koyama (+2 著者) Yoichi Hayakawa
      Insect Biochemistry and Molecular Biology 167: 104086 (2024) Semantic Scholar
  4. 4. N‐acetyloxfenicine strongly induces mitohormesis in mice as well as in insects Takashi Matsumura; Masaya Ono; Satoshi Osada; Fumikazu Matsuhisa (+1 著者) Yoichi Hayakawa
      FEBS Letters (2023) Semantic Scholar
  5. 5. Stress-derived reactive oxygen species enable hemocytes to release activator of growth blocking peptide (GBP) processing enzyme Hitoshi Matsumoto; Masanori Ochiai; Erina Imai; Takashi MatsumuraYoichi Hayakawa
      Journal of Insect Physiology 131: 104225 (2021) Semantic Scholar
  6. 6. Abnormal increases in reactive oxygen species in dying insects infected with nematodes Urara Tonogawa; Takashi Matsumura; Masaya Ono; Toyoshi Yoshiga
      Archives of Insect Biochemistry and Physiology 106: (2020) Semantic Scholar
  7. 7. N-acetyl-l-tyrosine is an intrinsic triggering factor of mitohormesis in stressed animals Takashi Matsumura, Outa Uryu, Fumikazu Matsuhisa, Keiji Tajiri, Hitoshi Matsumoto, Yoichi Hayakawa
      EMBO Reports 21: (2020) Semantic Scholar
  8. 8. Repeated phenotypic selection for cuticular blackness of armyworm larvae decreased stress resistance Takashi Matsumura, Hikaru Taya, Hitoshi Matsumoto, Yoichi Hayakawa
      Journal of Insect Physiology 117: (2019)
  9. 9. Identification of a cytokine combination that protects insects from stress Takashi Matsumura, Fumihiro Nakano, Hitoshi Matsumoto, Outa Uryu, Yoichi Hayakawa
      Insect Biochemistry and Molecular Biology 97: (2018) Semantic Scholar
  10. 10. A gene-driven recovery mechanism: Drosophila larvae increase feeding activity for post-stress weight recovery Masasuke Ryuda, Miku Tabuchi, Hitoshi Matsumoto, Takashi Matsumura, Masanori Ochiai, Yoichi Hayakawa
      Archives of Insect Biochemistry and Physiology 97: (2017) Semantic Scholar
  11. 11. Heat stress hardening of oriental armyworms is induced by a transient elevation of reactive oxygen species during sublethal stress Takashi Matsumura, Hitoshi Matsumoto, Yoichi Hayakawa
      Archives of Insect Biochemistry and Physiology 96: (2017) Semantic Scholar
  12. 12. Characterization of venom and oviduct components of parasitoid wasp asobara japonica Shunsuke Furihata, Takashi Matsumura, Makiko Hirata, Tetsuya Mizutani, Noriyo Nagata, Michiyo Kataoka, Yukie Katayama, Tsutomu Omatsu, Hitoshi Matsumoto, Yoichi Hayakawa
      PLoS ONE 11: (2016) Semantic Scholar

書籍等出版物情報はまだありません。

  1. 1. Stress-induced organismal death is genetically regulated by the mTOR-Zeste-Phae1 axis Takashi Matsumura; Masasuke Ryuda; Hitoshi Matsumoto; Takumi Kamiyama; Shu Kondo; Akira Nakamura; Yoichi Hayakawa; Ryusuke Niwa
    第98回日本生化学会大会 2025年11月5日
  2. 2. Stress-induced organismal death is genetically programed by the mTOR-Zeste-Phae1 axis Takashi Matsumura; Masasuke Ryuda; Hitoshi Matsumoto; Takumi Kamiyama; Shu Kondo; Akira Nakamura; Yoichi Hayakawa; Ryusuke Niwa
    The 16th Japanese Drosophila Research Conference 2024年9月18日
  3. 3. A genetic program promotes stress-induced organismal death in the fruit fly Drosophila melanogaster Takashi Matsumura; Masasuke Ryuda; Hitoshi Matsumoto; Takumi Kamiyama; Shu Kondo; Akira Nakamura; Yoichi Hayakawa; Ryusuke Niwa
    XXVII International Congress of Entomology 2024年8月30日
  4. 4. Stress-induced organismal death is genetically programed by the Zeste-Phae1 axis
    The 27th European Drosophila Research Conference 2023年10月
  5. 5. The Zeste-Phae1 axis is responsible for stress-induced organismal death in the fruit fly Drosophila melanogaster
    The 67th Annual Meeting of the Japanese Society of Applied Entomology and Zoology 2023年3月
  6. 6. The induction of organismal death requires Zeste-mediated transcriptional up-regulation of a stress-responsive protease gene Phaedra1
    Japan Drosophila Research Conference 15 2022年9月
  7. 7. 個体死誘導に関わるキイロショウジョウバエ新規ストレス応答性プロテアーゼの同定と機能解析 Takashi Matsumura; Masasuke Ryuda; Hitoshi Matsumoto; Takumi Kamiyama; Shu Kondo; Yoichi Hayakawa; Ryusuke Niwa
    日本分子生物学会大会 2021年12月
  8. 8. Identification and characterization of a novel stress response protease that mediates organismal death induction in Drosophila melanogaster
    Japan Drosophila Research Conference 14 2021年9月
  9. 9. 昆虫の個体死誘導に関わる新規ストレス応答性プロテアーゼの解析 松村崇志; 早川洋一
    第９３回日本生化学会大会 2020年9月
  10. 10. ストレス応答性プロテアーゼ Phaedra1 の発現機構と生理機能 松村崇志; 早川洋一
    第 64 回日本応用動物昆虫学会大会 2020年3月
  11. 11. 昆虫のストレス応答性の解析 松村崇志; 早川洋一
    第 89 回日本動物学会大会 2018年9月
  12. 12. 昆虫サイトカイン Stress responsive peptide (SRP)の発現機構と生理機能 松村崇志; 早川洋一
    第 62 回日本応用動物昆虫学会大会 2018年3月
  13. 13. A new bioassay using insects to evaluate stress-resistance induction activity of dietary supplements contents.
    The International Congress on Nutrition and Integrative Medicine 2017 2017年7月
  14. 14. アワヨトウにおけるストレス順応性獲得の分子機構 松村崇志; 早川洋一
    第 61 回日本応用動物昆虫学会大会 2017年3月
  15. 15. 昆虫の熱ストレス順応性獲得の分子機構 松村崇志; 早川洋一
    日本動物学会・日本植物学会・日本生態学会合同佐賀支部例会（動物学） 2016年11月
  16. 16. アワヨトウの高温順応性獲得の分子機構 松村崇志; 早川洋一
    2016 年度日本応用動物昆虫学会九州支部・九州病害虫研究会共催大会 2016年10月

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