Literature DB >> 3666314

Neural crest development in the Xenopus laevis embryo, studied by interspecific transplantation and scanning electron microscopy.

B Sadaghiani1, C H Thiébaud.   

Abstract

The Xenopus borealis quinacrine marker and scanning electron microscopy have been used to study the appearance, migration, and homing of neural crest cells in the embryo of Xenopus. The analysis shows that the primordium of the neural crest develops from the nervous layer of the ectoderm and consists of three segments at early neurula stages. This primordium is located in the lateral halves of the neural folds behind the prospective eye vesicles. The histological and experimental evidence shows that the neural crest cells also originate from the medial portion of the neural folds. The neural crest segments in the cephalic region start to migrate just before the closure of the neural tube. Isotopic and isochronic unilateral grafts of X. borealis neural crest into X. laevis embryos were performed in order to map the fate of the cranial crest segments and the vagal-truncal neural crest. The analysis of the X. laevis host embryos shows that the mandibular crest segment contributes to the lower jaw (Meckel's cartilage), quadrate, and ethmoid-trabecular cartilages, as well as to the ganglionic and Schwann cells of the trigeminus nerve, the connective tissues, the mesenchymal and choroid layers of the eye, and the cornea. The hyoid crest segment is located in the ceratohyal cartilage and in ganglia VII and VIII. The branchial crest segment migrates from the caudal part of the otic vesicle and divides into two portions which contribute to the cartilages of the gills. The vagal-truncal neural crest starts to migrate later at stage 25. It migrates by means of the vagus complex in a ventral direction and penetrates into the splanchnic layer of the digestive tract. The trunk neural crest cells disperse into three different pathways which differ from those of the avian embryo at this level.

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Mesh:

Year:  1987        PMID: 3666314     DOI: 10.1016/0012-1606(87)90463-5

Source DB:  PubMed          Journal:  Dev Biol        ISSN: 0012-1606            Impact factor:   3.582


  57 in total

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Authors:  Q Xu; G Mellitzer; D G Wilkinson
Journal:  Philos Trans R Soc Lond B Biol Sci       Date:  2000-07-29       Impact factor: 6.237

Review 2.  Neural crest patterning and the evolution of the jaw.

Authors:  C B Kimmel; C T Miller; R J Keynes
Journal:  J Anat       Date:  2001 Jul-Aug       Impact factor: 2.610

3.  Antagonists of Wnt and BMP signaling promote the formation of vertebrate head muscle.

Authors:  Eldad Tzahor; Hervé Kempf; Roy C Mootoosamy; Andy C Poon; Arhat Abzhanov; Clifford J Tabin; Susanne Dietrich; Andrew B Lassar
Journal:  Genes Dev       Date:  2003-12-15       Impact factor: 11.361

4.  Diversity in the molecular and cellular strategies of epithelium-to-mesenchyme transitions: Insights from the neural crest.

Authors:  Jean-Loup Duband
Journal:  Cell Adh Migr       Date:  2010-07-27       Impact factor: 3.405

5.  Localization of endogenous galactoside-binding lectin during morphogenesis of Xenopus laevis.

Authors:  N C Milos; Y L Ma; P V Varma; M P Bering; Z Mohamed; L M Pilarski; Y N Frunchak
Journal:  Anat Embryol (Berl)       Date:  1990

Review 6.  Mechanism of Xenopus cranial neural crest cell migration.

Authors:  Dominque Alfandari; Hélène Cousin; Mungo Marsden
Journal:  Cell Adh Migr       Date:  2010-10-01       Impact factor: 3.405

Review 7.  Evolution of cranial development and the role of neural crest: insights from amphibians.

Authors:  James Hanken; Joshua B Gross
Journal:  J Anat       Date:  2005-11       Impact factor: 2.610

8.  Cartilage on the move: cartilage lineage tracing during tadpole metamorphosis.

Authors:  Ryan R Kerney; Alison L Brittain; Brian K Hall; Daniel R Buchholz
Journal:  Dev Growth Differ       Date:  2012-10-04       Impact factor: 2.053

9.  Deconstructing cartilage shape and size into contributions from embryogenesis, metamorphosis, and tadpole and frog growth.

Authors:  Christopher S Rose; Danny Murawinski; Virginia Horne
Journal:  J Anat       Date:  2015-04-25       Impact factor: 2.610

10.  Xenopus Sox3 activates sox2 and geminin and indirectly represses Xvent2 expression to induce neural progenitor formation at the expense of non-neural ectodermal derivatives.

Authors:  Crystal D Rogers; Naoe Harafuji; Tenley Archer; Doreen D Cunningham; Elena S Casey
Journal:  Mech Dev       Date:  2008-10-17       Impact factor: 1.882

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