Mesoderm is required for coordinated cell movements within zebrafish neural plate in vivo

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• 作者：Claudio Araya (1) (2)
  Marcel Tawk (1) (3)
  Gemma C Girdler (1) (4)
  Marta Costa (1) (5)
  Carlos Carmona-Fontaine (6)
  Jonathan DW Clarke (1)
  
  1. Medical Research Council (MRC) Centre for Developmental Neurobiology ; King鈥檚 College London ; New Hunt鈥檚 House ; 4th Floor ; Guy鈥檚 Hospital Campus ; London ; SE1 1UL ; UK
  2. Laboratory of Developmental Biology ; Instituto de Ciencias Marinas y Limnol贸gicas ; Facultad de Ciencias ; Universidad Austral de Chile ; Campus Isla Teja s/n ; Valdivia ; 5090000 ; Chile
  3. H么pital Kremlin Bic锚tre ; 80 Rue du General Leclerc ; Le Kremlin Bic锚tre ; 94276 ; France
  4. Medical Research Council (MRC) Laboratory of Molecular Biology (LMB) ; Francis Crick Avenue ; Cambridge Biomedical Campus ; Cambridge ; CB2 0QH ; UK
  5. Department of Zoology ; University of Cambridge ; Downing Street ; Cambridge ; CB2 3EJ ; UK
  6. Program in Computational Biology ; Memorial Sloan-Kettering Cancer Center ; New York ; NY ; 10065 ; USA
  
• 关键词：Zebrafish neurulation ; Morphogenesis ; Mesoderm
• 刊名：Neural Development
• 出版年：2014
• 出版时间：December 2014
• 年：2014
• 卷：9
• 期：1
• 全文大小：4,431 KB
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• 刊物主题：Neurosciences; Developmental Biology;
• 出版者：BioMed Central
• ISSN：1749-8104

文摘

Background Morphogenesis of the zebrafish neural tube requires the coordinated movement of many cells in both time and space. A good example of this is the movement of the cells in the zebrafish neural plate as they converge towards the dorsal midline before internalizing to form a neural keel. How these cells are regulated to ensure that they move together as a coherent tissue is unknown. Previous work in other systems has suggested that the underlying mesoderm may play a role in this process but this has not been shown directly in vivo. Results Here we analyze the roles of subjacent mesoderm in the coordination of neural cell movements during convergence of the zebrafish neural plate and neural keel formation. Live imaging demonstrates that the normal highly coordinated movements of neural plate cells are lost in the absence of underlying mesoderm and the movements of internalization and neural tube formation are severely disrupted. Despite this, neuroepithelial polarity develops in the abnormal neural primordium but the resulting tissue architecture is very disorganized. Conclusions We show that the movements of cells in the zebrafish neural plate are highly coordinated during the convergence and internalization movements of neurulation. Our results demonstrate that the underlying mesoderm is required for these coordinated cell movements in the zebrafish neural plate in vivo.