Research output: Contribution to journal › Article › peer-review
Sandra Guadalupe Gonzalez Malagon, Lisa Dobson, Anna M Lopez Munoz, Marcus Dawson, William Barrell, Petros Marangos, Matthias Krause, Karen J Liu
Original language | English |
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Article number | e60051 |
Journal | Journal of Visualized Experiments |
Issue number | 152 |
Early online date | 10 Mar 2019 |
DOIs | |
E-pub ahead of print | 10 Mar 2019 |
Published | 3 Oct 2019 |
Additional links |
Dissection, Culture and Analysis_MALAGON_Publishedonline10March2019_GOLD VoR (CC BY)
Dissection_Culture_and_Analysis_MALAGON_Publishedonline10March2019_GOLD_VoR_CC_BY_.pdf, 0.98 MB, application/pdf
Uploaded date:22 Nov 2019
Version:Final published version
Licence:CC BY
Over the past several decades there has been an increased availability of genetically modified mouse models used to mimic human pathologies. However, the ability to study cell movements and differentiation in vivo is still very difficult. Neurocristopathies, or disorders of the neural crest lineage, are particularly challenging to study due to a lack of accessibility of key embryonic stages and the difficulties in separating out the neural crest mesenchyme from adjacent mesodermal mesenchyme. Here, we set out to establish a well-defined, routine protocol for the culture of primary cranial neural crest cells. In our approach we dissect out the mouse neural plate border during the initial neural crest induction stage. The neural plate border region is explanted and cultured. The neural crest cells form in an epithelial sheet surrounding the neural plate border, and by 24 h after explant, begin to delaminate, undergoing an epithelial-mesenchymal transition (EMT) to become fully motile neural crest cells. Due to our two-dimensional culturing approach, the distinct tissue populations (neural plate versus premigratory and migratory neural crest) can be readily distinguished. Using live imaging approaches, we can then identify changes in neural crest induction, EMT and migratory behaviors. The combination of this technique with genetic mutants will be a very powerful approach for understanding normal and pathological neural crest cell biology.
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