Showing page 3 of 43 pages of list content

  1. A copper-dependent, redox-based hydrogen peroxide perception in plants

    This article has 12 authors:
    1. Nobuaki Ishihama
    2. Yohta Fukuda
    3. Yumiko Shirano
    4. Kaori Takizawa
    5. Ryoko Hiroyama
    6. Kazuhiro J. Fujimoto
    7. Hiroki Ito
    8. Mayumi Nishimura
    9. Takeshi Yanai
    10. Tsuyoshi Inoue
    11. Ken Shirasu
    12. Anuphon Laohavisit

    Reviewed by PREreview

    This article has 1 evaluationAppears in 1 listLatest version Latest activity
  2. A single factor for safer cellular rejuvenation

    This article has 22 authors:
    1. Lucas Paulo de Lima Camillo
    2. Rihab Gam
    3. Katsiaryna Maskalenka
    4. Francis J. A. LeBlanc
    5. Gustavo Antonio Urrutia
    6. Gabriel M. Mejia
    7. Henry E. Miller
    8. Christopher P. Wardlaw
    9. Adam Pickles
    10. Laura Everton
    11. Ringaile Zaksauskaite
    12. Rejina B. Khan
    13. Andreas Welsh
    14. Samira Gambo
    15. Stephany Gallardo
    16. Zoryana Oliynyk
    17. Sagar S. Varankar
    18. Alexander E. Epstein
    19. Adam Bendall
    20. Jonathan Mowatt
    21. Daniel Ives
    22. Brendan M. Swain

    Reviewed by PREreview

    This article has 1 evaluationAppears in 1 listLatest version Latest activity
  3. iGABASnFR2: Improved genetically encoded protein sensors of GABA

    This article has 19 authors:
    1. Ilya Kolb
    2. Jeremy P Hasseman
    3. Akihiro Matsumoto
    4. Thomas P Jensen
    5. Olga Kopach
    6. Benjamin J Arthur
    7. Yan Zhang
    8. Arthur Tsang
    9. Daniel Reep
    10. Getahun Tsegaye
    11. Jihong Zheng
    12. Ronak H Patel
    13. Loren L Looger
    14. Jonathan S Marvin
    15. Wyatt L Korff
    16. Dmitri A Rusakov
    17. Keisuke Yonehara
    18. GENIE Project Team
    19. Glenn C Turner
    This article has been curated by 1 group:
    • Curated by eLife

      eLife Assessment

      This manuscript reports the development and characterization of iGABASnFR2, a genetically encoded GABA sensor that demonstrates substantially improved performance compared to its predecessor, iGABASnFR1. The work is comprehensive and methodologically rigorous, combining high-throughput mutagenesis, functional screening, structural analysis, biophysical characterization, and in vivo validation. The significance of the findings is fundamental, and the supporting evidence is compelling. iGABASnFR2 represents a notable advance in GABA sensor engineering, enabling enhanced imaging of GABA transmission both in brain slices and in vivo, and constitutes a timely, technically robust addition to the molecular toolkit for neuroscience research.

    Reviewed by eLife, PREreview

    This article has 4 evaluationsAppears in 2 listsLatest version Latest activity