eLife

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1. We couldn't get details of this article at this time:
   10.1101/2025.05.30.657023

2. We couldn't get details of this article at this time:
   10.1101/2025.04.17.649398

3. We couldn't get details of this article at this time:
   10.1101/2025.03.25.645377

4. Efficient Generation of Expandable Dorsal Forebrain Neural Rosette Stem Cell Lines

   This article has 9 authors:

   1. Signe Emilie Dannulat Frazier
   2. Kristian Honnens de Lichtenberg
   3. Elham Jaberi
   4. Charlotte Bertelsen
   5. Simone Møller Jensen
   6. Andreas Wrona
   7. Nicolaj Strøyer Christophersen
   8. Mie Kristensen
   9. J Carlos Villaescusa

   This article has been curated by 1 group:

   • Curated by eLife

     eLife Assessment

     The study provides valuable technical advances to generate and isolate neural rosettes. The technique is robust, as indicated by both reviewers. The evidence is solid, as shown in orthogonal characterization by flow cytometry, morphology, and scRNA-seq. Comparison with the manual-rosette-picking protocol will enhance the validity of the claims.

   Reviewed by eLife

5. We couldn't get details of this article at this time:
   10.1101/2024.03.27.24303943

6. We couldn't get details of this article at this time:
   10.1101/2025.04.18.649532

7. We couldn't get details of this article at this time:
   10.1101/2025.05.02.651562

8. The interplay of membrane tension and FtsZ filament condensation on the initiation and progression of cell division in B. subtilis

   This article has 6 authors:

   1. Diego A Ramirez-Diaz
   2. Lei Yin
   3. Daniela Albanesi
   4. Jenny Zheng
   5. Diego de Mendoza
   6. Ethan C Garner

   This article has been curated by 1 group:

   • Curated by eLife

     eLife Assessment

     This fundamental work provides solid evidence that advances our understanding of the physical mechanisms underlying bacterial cell division by examining the role of membrane tension and FtsZ condensation in sequential stages of division. The effect of accDA overexpression on membrane tension was carefully characterized. To further enhance rigor, the authors could consider examining orthogonal perturbations to membrane tension, addressing membrane tension vs. fluidity, and addressing the ability of FtsZ to bend membranes in cells.

   Reviewed by eLife

9. We couldn't get details of this article at this time:
   10.1101/2025.06.03.657627

10. We couldn't get details of this article at this time:
    10.1101/2025.05.23.655726