Literature DB >> 20962584

Mechanisms driving neural crest induction and migration in the zebrafish and Xenopus laevis.

Michael W Klymkowsky1, Christy Cortez Rossi, Kristin Bruk Artinger.   

Abstract

The neural crest is an evolutionary adaptation, with roots in the formation of mesoderm. Modification of neural crest behavior has been is critical for the evolutionary diversification of the vertebrates and defects in neural crest underlie a range of human birth defects. There has been a tremendous increase in our knowledge of the molecular, cellular, and inductive interactions that converge on defining the neural crest and determining its behavior. While there is a temptation to look for simple models to explain neural crest behavior, the reality is that the system is complex in its circuitry. In this review, our goal is to identify the broad features of neural crest origins (developmentally) and migration (cellularly) using data from the zebrafish (teleost) and Xenopus laevis (tetrapod amphibian) in order to illuminate where general mechanisms appear to be in play, and equally importantly, where disparities in experimental results suggest areas of profitable study.

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Year:  2010        PMID: 20962584      PMCID: PMC3011258          DOI: 10.4161/cam.4.4.12962

Source DB:  PubMed          Journal:  Cell Adh Migr        ISSN: 1933-6918            Impact factor:   3.405


  241 in total

1.  Semaphorin signaling guides cranial neural crest cell migration in zebrafish.

Authors:  Hung-Hsiang Yu; Cecilia B Moens
Journal:  Dev Biol       Date:  2005-04-15       Impact factor: 3.582

2.  Antagonistic roles of full-length N-cadherin and its soluble BMP cleavage product in neural crest delamination.

Authors:  Irit Shoval; Andreas Ludwig; Chaya Kalcheim
Journal:  Development       Date:  2006-12-21       Impact factor: 6.868

3.  The left-right axis is regulated by the interplay of Coco, Xnr1 and derrière in Xenopus embryos.

Authors:  Alin Vonica; Ali H Brivanlou
Journal:  Dev Biol       Date:  2006-09-28       Impact factor: 3.582

4.  Ephrin-B2 forward signaling regulates somite patterning and neural crest cell development.

Authors:  Alice Davy; Philippe Soriano
Journal:  Dev Biol       Date:  2006-12-19       Impact factor: 3.582

5.  Redundant activities of Tfap2a and Tfap2c are required for neural crest induction and development of other non-neural ectoderm derivatives in zebrafish embryos.

Authors:  Wei Li; Robert A Cornell
Journal:  Dev Biol       Date:  2006-12-23       Impact factor: 3.582

6.  Xema, a foxi-class gene expressed in the gastrula stage Xenopus ectoderm, is required for the suppression of mesendoderm.

Authors:  Crystal Suri; Tomomi Haremaki; Daniel C Weinstein
Journal:  Development       Date:  2005-05-18       Impact factor: 6.868

7.  Xenopus hairy2 functions in neural crest formation by maintaining cells in a mitotic and undifferentiated state.

Authors:  Kan-Ichiro Nagatomo; Chikara Hashimoto
Journal:  Dev Dyn       Date:  2007-06       Impact factor: 3.780

8.  Sdf1a patterns zebrafish melanophores and links the somite and melanophore pattern defects in choker mutants.

Authors:  Valentina Svetic; Georgina E Hollway; Stone Elworthy; Thomas R Chipperfield; Claire Davison; Richard J Adams; Judith S Eisen; Philip W Ingham; Peter D Currie; Robert N Kelsh
Journal:  Development       Date:  2007-01-31       Impact factor: 6.868

9.  An NF-kappaB and slug regulatory loop active in early vertebrate mesoderm.

Authors:  Chi Zhang; Timothy F Carl; Evan D Trudeau; Thomas Simmet; Michael W Klymkowsky
Journal:  PLoS One       Date:  2006-12-27       Impact factor: 3.240

10.  Essential role of non-canonical Wnt signalling in neural crest migration.

Authors:  Jaime De Calisto; Claudio Araya; Lorena Marchant; Chaudhary F Riaz; Roberto Mayor
Journal:  Development       Date:  2005-04-27       Impact factor: 6.868

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  18 in total

1.  Mustn1 is essential for craniofacial chondrogenesis during Xenopus development.

Authors:  Robert P Gersch; Arif Kirmizitas; Lidia Sobkow; Gina Sorrentino; Gerald H Thomsen; Michael Hadjiargyrou
Journal:  Gene Expr Patterns       Date:  2012-01-18       Impact factor: 1.224

Review 2.  PleiotRHOpic: Rho pathways are essential for all stages of Neural Crest development.

Authors:  Philippe Fort; Eric Théveneau
Journal:  Small GTPases       Date:  2014-03-10

3.  Zebrafish Znfl1 proteins control the expression of hoxb1b gene in the posterior neuroectoderm by acting upstream of pou5f3 and sall4 genes.

Authors:  Xiaohua Dong; Jingyun Li; Luqingqing He; Chun Gu; Wenshuang Jia; Yunyun Yue; Jun Li; Qinxin Zhang; Lele Chu; Qingshun Zhao
Journal:  J Biol Chem       Date:  2017-06-16       Impact factor: 5.157

4.  Neural crest development in Xenopus requires Protocadherin 7 at the lateral neural crest border.

Authors:  R S Bradley
Journal:  Mech Dev       Date:  2018-01-31       Impact factor: 1.882

Review 5.  Swimming toward solutions: Using fish and frogs as models for understanding RASopathies.

Authors:  Victoria L Patterson; Rebecca D Burdine
Journal:  Birth Defects Res       Date:  2020-06-07       Impact factor: 2.344

6.  Snail2 controls mesodermal BMP/Wnt induction of neural crest.

Authors:  Jianli Shi; Courtney Severson; Jianxia Yang; Doris Wedlich; Michael W Klymkowsky
Journal:  Development       Date:  2011-06-29       Impact factor: 6.868

7.  Chicken trunk neural crest migration visualized with HNK1.

Authors:  Dion Giovannone; Blanca Ortega; Michelle Reyes; Nancy El-Ghali; Maes Rabadi; Sothy Sao; Maria Elena de Bellard
Journal:  Acta Histochem       Date:  2015-03-21       Impact factor: 2.479

8.  Neural crest cell communication involves an exchange of cytoplasmic material through cellular bridges revealed by photoconversion of KikGR.

Authors:  Mary Cathleen McKinney; Danny A Stark; Jessica Teddy; Paul M Kulesa
Journal:  Dev Dyn       Date:  2011-04-05       Impact factor: 3.780

Review 9.  The scales and tales of myelination: using zebrafish and mouse to study myelinating glia.

Authors:  Sarah D Ackerman; Kelly R Monk
Journal:  Brain Res       Date:  2015-10-20       Impact factor: 3.252

10.  BMP signaling protects telencephalic fate by repressing eye identity and its Cxcr4-dependent morphogenesis.

Authors:  Holger Bielen; Corinne Houart
Journal:  Dev Cell       Date:  2012-10-16       Impact factor: 12.270

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