ホーム > 木村 圭志/ Kimura, Keiji

木村 圭志

Kimura, Keiji

生命環境系 , 教授
Institute of Life and Environmental Sciences , Professor

分裂期染色体の均等な分配を保証する核小体タンパク質複合体を発見　～細胞分裂における核小体の働きの解明～

2020-10-20

核小体の崩壊が細胞分裂のタイミングを遅延させる

2019-01-22

Secrets of successful cell division

2018-12-25

オープンアクセス版の論文は「つくばリポジトリ」で読むことができます。
  1. 1. SF3B14 is involved in the centrosome regulation through splicing of TUBGCP6 pre-mRNA. Kato, Kazashi; Udagawa, Rina; Hayashi, Yuki; Maki, Masayoshi (+4 著者) Kimura, Keiji
      Biochem Biophys Res Commun. 588: 133 - 139 (2022)
  2. 2. Identification of a novel nucleolar protein complex required for mitotic chromosome segregation through centromeric accumulation of Aurora B Fujimura, Akiko; Hayashi, Yuki; Kato, Kazashi; Kogure, Yuichiro (+5 著者) Kimura, Keiji
      Nucleic acids research 48: 6583 - 6596 (2020) Semantic Scholar
  3. 3. The N-terminal sequence of murine PRMT5 variant 2 is required for Hsp70 interaction and CHIP ligase-mediated degradation Lu, Weizhe; Kim, Jun-Dal; Tabara, Saori; Kwon, Chulwon (+2 著者) Fukamizu, Akiyoshi
      Biochemical and Biophysical Research Communications 514: 1185 - 1191 (2019) Semantic Scholar
  4. 4. Calreticulin and integrin alpha dissociation induces anti-inflammatory programming in animal models of inflammatory bowel disease Masayoshi Ohkuro; Jun-Dal Kim; Yoshikazu Kuboi; Yuki Hayashi (+21 著者) Akiyoshi Fukamizu
      Nature Communications 9: 1982 (2018) Semantic Scholar
  5. 5. Nucleolar integrity during interphase supports faithful Cdk1 activation and mitotic entry Yuki Hayashi; Akiko Fujimura; Kazashi Kato; Rina Udagawa (+1 著者) Keiji Kimura
      Science Advances 4: eaap7777 (2018) Semantic Scholar
  6. 6. The hierarchical structure of the perichromosomal layer comprises Ki67, ribosomal RNAs, and nucleolar proteins Yuki Hayashi; Kazashi Kato; Keiji Kimura
      Biochemical and Biophysical Research Communications 493: 1043 - 1049 (2017) Semantic Scholar
  7. 7. CHIP buffers heterogeneous Bcl-2 expression levels to prevent augmentation of anticancer drug-resistant cell population M. Tsuchiya; Y. Nakajima; T. Waku; H. Hiyoshi (+5 著者) J. Yanagisawa
      ONCOGENE 34: 4656 - 4663 (2015) Semantic Scholar
  8. 8. Gradual reduction in rRNA transcription triggers p53 acetylation and apoptosis via MYBBP1A Takuya Kumazawa; Kazuho Nishimura; Naohiro Katagiri; Sayaka Hashimoto (+1 著者) Keiji Kimura
      SCIENTIFIC REPORTS 5: 10854 (2015) Semantic Scholar
  9. 9. The nucleolar protein nucleophosmin is essential for autophagy induced by inhibiting Pol I transcription Naohiro Katagiri; Takao Kuroda; Hiroyuki Kishimoto; Yuki Hayashi (+1 著者) Keiji Kimura
      SCIENTIFIC REPORTS 5: 8903 (2015) Semantic Scholar
  10. 10. Perturbation of Ribosome Biogenesis Drives Cells into Senescence through 5S RNP-Mediated p53 Activation Kazuho Nishimura; Takuya Kumazawa; Takao Kuroda; Naohiro Katagiri (+5 著者) Keiji Kimura
      CELL REPORTS 10: 1310 - 1323 (2015) Semantic Scholar
  11. 11. Ubiquitin ligase CHIP suppresses cancer stem cell properties in a population of breast cancer cells Mai Tsuchiya; Yuka Nakajima; Naoya Hirata; Tamaki Morishita (+2 著者) Keiji Kimura
      BIOCHEMICAL AND BIOPHYSICAL RESEARCH COMMUNICATIONS 452: 928 - 932 (2014) Semantic Scholar
  12. 12. Hepatic rRNA Transcription Regulates High-Fat-Diet-Induced Obesity Shohei Oie; Kazuya Matsuzaki; Wataru Yokoyama; Shinji Tokunaga (+11 著者) Akiko Murayama
      CELL REPORTS 7: 807 - 820 (2014) Semantic Scholar
  13. 13. Downregulation of rRNA Transcription Triggers Cell Differentiation Yuki Hayashi; Takao Kuroda; Hiroyuki Kishimoto; Changshan Wang (+1 著者) Keiji Kimura
      PLOS ONE 9: (2014) Semantic Scholar
  14. 14. The Nucleolar Protein Myb-binding Protein 1A ( MYBBP1A) Enhances p53 Tetramerization and Acetylation in Response to Nucleolar Disruption* Wakana Ono; Yuki Hayashi; Wataru Yokoyama; Takao Kuroda (+5 著者) Junn Yanagisawa
      JOURNAL OF BIOLOGICAL CHEMISTRY 289: 4928 - 4940 (2014) Semantic Scholar
  15. 15. Nucleolar protein, Myb-binding protein 1A, specifically binds to nonacetylated p53 and efficiently promotes transcriptional activation Wakana Ono; Kensuke Akaogi; Tsuyoshi Waku; Takao Kuroda (+4 著者) Junn Yanagisawa
      BIOCHEMICAL AND BIOPHYSICAL RESEARCH COMMUNICATIONS 434: 659 - 663 (2013) Semantic Scholar
  16. 16. Enhancer of rudimentary homolog (ERH) plays an essential role in the progression of mitosis by promoting mitotic chromosome alignment Akiko Fujimura; Hiroyuki Kishimoto; Junn Yanagisawa; Keiji Kimura
      BIOCHEMICAL AND BIOPHYSICAL RESEARCH COMMUNICATIONS 423: 588 - 592 (2012) Semantic Scholar
  17. 17. Novel Nucleolar Pathway Connecting Intracellular Energy Status with p53 Activation Takuya Kumazawa; Kazuho Nishimura; Takao Kuroda; Wakana Ono (+7 著者) Junn Yanagisawa
      JOURNAL OF BIOLOGICAL CHEMISTRY 286: 20861 - 20869 (2011) Semantic Scholar
  18. 18. Estrogen Regulates Tumor Growth Through a Nonclassical Pathway that Includes the Transcription Factors ER beta and KLF5 Nakajima, Yuka; Akaogi, Kensuke; Suzuki, Takashi; Osakabe, Asami (+11 著者) Yanagisawa, Junn
      SCIENCE SIGNALING 4: ra22 (2011)
  19. 19. Critical role of the nucleolus in activation of the p53-dependent postmitotic checkpoint Tsuchiya,Mai; Katagiri,Naohiro; Kuroda,Takao; Kishimoto,Hiroyuki (+4 著者) Yanagisawa,Junn
      Biochemical and Biophysical Research Communications 407: 378 - 382 (2011)
  20. 20. Estrogen Regulates Tumor Growth Through a Nonclassical Pathway that Includes the Transcription Factors ER beta and KLF5 Yuka Nakajima; Kensuke Akaogi; Takashi Suzuki; Asami Osakabe (+11 著者) Junn Yanagisawa
      SCIENCE SIGNALING 4: ra22 (2011)
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  1. 1. M期を制御するホスファターゼとその新規機能 竹本; 愛 木村 圭; 木村, 圭志
    細胞工学 2011年5月
  2. 2. 染色体凝縮因子コンデンシンの活性を抑制する新たな制御機構 竹本; 愛 木村; 圭志; 花岡 文雄; 木村, 圭志
    実験医学、羊土社、Vol. 25, No. 4 2007年3月
  3. 3. ヒト培養細胞からのトポイソメラーゼの精製 竹本; 愛 木村; 圭志; 花岡 文雄; 木村, 圭志
    タンパク質実験マニュアル、朝倉書店 2006年10月
  4. 4. 染色体凝縮因子コンデンシンのアフィニティー精製法 竹本; 愛 木村; 圭志; 花岡 文雄; 木村, 圭志
    タンパク質実験マニュアル、朝倉書店 2006年10月
  5. 5. ヒストンのリン酸化 木村; 圭志 花岡
    わかる実験医学シリーズ 注目のエピジェネティクスがわかる 2004年8月
  6. 6. コンデンシン 竹本; 愛 木村; 圭志; 花岡 文雄; 木村, 圭志
    生体の科学、金原医学医療振興財団Vol.55, No. 3 2004年1月
  7. 7. ヒストンのリン酸化制御によるクロマチン凝縮機構 木村; 圭志 花岡
    分子細胞治療Vol. 3, No. 2 2004年1月
  8. 8. クロマチンの凝縮機構とヒストンのリン酸化 木村; 圭志 花岡
    実験医学 Vol. 19, No. 16 2001年10月
  9. 9. SMCタンパク質と染色体周期 木村; 圭志 平野
    実験医学 Vol. 17, No 5 1999年3月

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