eLife

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1. We couldn't get details of this article at this time:
   10.1101/2024.10.23.619838

2. We couldn't get details of this article at this time:
   10.1101/2024.09.12.24313524

3. Probing the force-from-lipid mechanism with synthetic polymers

   This article has 9 authors:

   1. Miranda L Jacobs
   2. Jan Steinkühler
   3. Audra Lemley
   4. Megan J Larmore
   5. Taylor F Gunnels
   6. Leo CT Ng
   7. Stephanie M Cologna
   8. Paul G DeCaen
   9. Neha P Kamat

   This article has been curated by 1 group:

   • Curated by eLife

     eLife Assessment

     Gating of mechanosensitive channels has been explained by the force-from-lipids model in which mechanical coupling of the channel protein to the plasma membrane transfers force from membrane tension to open the channel. In this important manuscript, the authors provide evidence for this mechanism in two different mechanically gated channels. The experiments were carried out in the same membranes, but the evidence is incomplete without a clear explanation of the relationship between measured mechanical parameters and membrane interfacial tension.

   Reviewed by eLife

4. We couldn't get details of this article at this time:
   10.1101/2024.10.06.616889

5. We couldn't get details of this article at this time:
   10.1101/2024.04.04.588006

6. The title and authors for this article are not available from our external data provider yet:
   10.48550/arxiv.2401.04873v3

7. Mitochondrial metabolism in Drosophila macrophage-like cells regulates body growth via modulation of cytokine and insulin signaling

   This article has 5 authors:

   1. Shrivani Sriskanthadevan-Pirahas
   2. Abdul Qadeer Tinwala
   3. Michael J Turingan
   4. Shahoon Khan
   5. Savraj S Grewal

   This article has been curated by 1 group:

   • Curated by eLife

     eLife Assessment

     This fundamental work demonstrates that compartmentalized cellular metabolism is a dominant input into cell size control in a variety of mammalian cell types and in Drosophila. The authors show that increased pyruvate import into the mitochondria in liver-like cells and in primary hepatocytes drives gluconeogenesis but reduces cellular amino acid production, suppressing protein synthesis. The evidence supporting the conclusions is compelling, with a variety of genetic and pharmacologic assays rigorously testing each step of the proposed mechanism. This work will be of interest to cell biologists, physiologists, and researchers interested in cell metabolism, and is significant because stem cells and many cancers exhibit metabolic rewiring of pyruvate metabolism.

   Reviewed by eLife

8. We couldn't get details of this article at this time:
   10.21203/rs.3.rs-4390765/v2

9. We couldn't get details of this article at this time:
   10.1101/2024.11.05.622078

10. We couldn't get details of this article at this time:
    10.1101/2024.09.26.615223