1. Transcriptomic profile of embryoid bodies under hypoxia at single cell level

    This article has 5 authors:
    1. Bárbara Acosta-Iborra
    2. Yosra Berrouayel
    3. Laura Puente-Santamaría
    4. Luis del Peso
    5. Benilde Jiménez
    This article has been curated by 1 group:
    • Curated by GigaByte

      Editors Assessment:

      This is a Data Release paper describing a mouse embryoid body single-cell RNA-seq dataset generated to study how oxygen availability shapes early cell differentiation. Acosta-Iborra et al. differentiated R1 mouse embryonic stem cells into embryoid bodies for 8 or 10 days, exposing them to hypoxia or normoxia for the final 16 or 48 hours of differentiation, then profiled thousands of cells per condition using droplet-based scRNA-seq from 10X. This yielding eight raw/filtered HDF5 count matrices across the four conditions. This was validated with flow cytometry, immunofluorescence, and EdU assays, confirming that hypoxia increased endothelial marker expression and vascular network complexity while inducing cell cycle arrest. This pattern mirrored transcriptionally, with hypoxic samples showing markedly higher proportions of cells in G0/G1 phase and elevated hypoxia gene-signature scores. QC analysis (and peer review in GigaByte) confirmed high data quality across samples, and conservative low-resolution clustering revealed a largely homogeneous progenitor population with a smaller, more differentiated subset. While there are limitations (mature endothelial cells were too sparse to robustly test the original hypothesis) the authors present this as an open, well-validated resource for comparative studies of hypoxia responses, benchmarking single-cell computational tools, and investigating early lineage specification and oxygen signaling more broadly.

      This evaluation refers to version 1 of the preprint

    Reviewed by GigaByte

    This article has 2 evaluationsAppears in 2 listsLatest version Latest activity
  2. Identification of nuclear pore proteins at plasmodesmata: potential role in intercellular transport?

    This article has 19 authors:
    1. T Moritz Schladt
    2. Manuel Miras
    3. Jona Obinna Ejike
    4. Mathieu Pottier
    5. Lin Xi
    6. Andrea Restrepo-Escobar
    7. Masayoshi Nakamura
    8. Niklas Pütz
    9. Sebastian Hänsch
    10. Chen Gao
    11. Julia Engelhorn
    12. Marcel Dickmanns
    13. Gwendolyn V Davis
    14. Ahan Dalal
    15. Sven Gombos
    16. Ronja Lange
    17. Rüdiger Simon
    18. Waltraud X Schulze
    19. Wolf B Frommer
    This article has been curated by 1 group:
    • Curated by eLife

      eLife Assessment

      Plasmodesmata are channels that allow cell-cell communication in plants; based on the functional similarities between facilitated transport at plasmodesmata and into the nucleus, the authors present the bold and potentially transformational hypothesis that nuclear pore complex proteins (NUPs) might be involved in plasmodesmata function. Here, the authors localize a subset of NUPs to plasmodesmata using proteomics and fluorescent imaging. They acknowledge many limitations to their work, including potential artifacts and the lack of functional validation of multiple NUPs, which may complicate the interpretation of their mostly solid results. Further experiments will be necessary to fully test this fundamental hypothesis about the function of NUPs at plasmodesmata.

    Reviewed by eLife

    This article has 9 evaluationsAppears in 1 listLatest version Latest activity
  3. Peripheral lysosomes recruit PLEKHG3 to focal adhesions and restrain protrusion dynamics

    This article has 9 authors:
    1. Rainer Ettelt
    2. Ana-Maria Sandru
    3. Georg Vucak
    4. Sebastian Didusch
    5. Biljana Riemelmoser
    6. Karin Ehrenreiter
    7. Markus Hartl
    8. Lukas A. Huber
    9. Manuela Baccarini

    Reviewed by Review Commons

    This article has 8 evaluationsAppears in 2 listsLatest version Latest activity
  4. Muscular dystrophy-associated lamin variants disrupt cellular organization through a nucleolar-ribosomal axis controlling cytoplasmic macromolecular crowding

    This article has 5 authors:
    1. Xiangyi Ding
    2. Sweta Kumari
    3. Ellen Gregory
    4. Daniel A. Starr
    5. G. W. Gant Luxton

    Reviewed by Arcadia Science

    This article has 4 evaluationsAppears in 1 listLatest version Latest activity
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