Cadherin-Mediated Differential Cell Adhesion Controls Slow Muscle Cell Migration in the Developing Zebrafish Myotome

Cadherin-Mediated Differential Cell Adhesion Controls Slow Muscle Cell Migration in the Developing Zebrafish Myotome

Saved in:

Bibliographic Details
Main Authors:	Fernando Cortés, David F. Daggett, Robert J. Bryson‐Richardson, Christine Neyt, John Maule, Phillipe Gautier, Georgina E. Hollway, David G. Keenan, Peter D. Currie
Format:	Artigo
Language:	English
Published:	2003
Online Access:	https://doi.org/10.1016/s1534-5807(03)00362-9 https://www.cell.com/article/S1534580703003629/pdf
Tags:	Add Tag No Tags, Be the first to tag this record!

Similar Items

Control of morphogenetic cell movements in the early zebrafish myotome
by: Daggett, David F., et al.
Published: (2007)

Myotome meanderings. Cellular morphogenesis and the making of muscle
by: Hollway, Georgina E., et al.
Published: (2003)

Myosin heavy chain expression in zebrafish and slow muscle composition
by: Robert J. Bryson‐Richardson, et al.
Published: (2005)

Met and Hgf signaling controls hypaxial muscle and lateral line development in the zebrafish
by: LYNN HAINES, et al.
Published: (2004)

Morphogenesis and Cell Fate Determination within the Adaxial Cell Equivalence Group of the Zebrafish Myotome
by: Nguyen-Chi, Mai E., et al.
Published: (2012)

Dystrophin is required for the formation of stable muscle attachments in the zebrafish embryo
by: David I. Bassett, et al.
Published: (2003)

Shaping the zebrafish myotome by intertissue friction and active stress
by: Tlili, S., et al.
Published: (2019)

Shaping the zebrafish myotome by intertissue friction and active stress
by: Sham Tlili, et al.
Published: (2019)

M-Cadherin Is a PAX3 Target During Myotome Patterning
by: Esteves de Lima, Joana, et al.
Published: (2021)

Whole-Somite Rotation Generates Muscle Progenitor Cell Compartments in the Developing Zebrafish Embryo
by: Georgina E. Hollway, et al.
Published: (2007)

Paxillin Genes and Actomyosin Contractility Regulate Myotome Morphogenesis in Zebrafish
by: Jacob, Andrew E., et al.
Published: (2017)

The zebrafish candyfloss mutant implicates extracellular matrix adhesion failure in laminin α2-deficient congenital muscular dystrophy
by: Hall, Thomas E., et al.
Published: (2007)

Requirement of the juxtamembrane domain of the cadherin cytoplasmic tail for morphogenetic cell rearrangement during myotome development
by: Horikawa, Kazuki, et al.
Published: (2001)

The zebrafish <i>candyfloss</i> mutant implicates extracellular matrix adhesion failure in laminin α2-deficient congenital muscular dystrophy
by: Thomas E. Hall, et al.
Published: (2007)

Myotome and Scleratome Pain
by: Southworth, James L., et al.
Published: (1950)

Characterization of the transcriptome of fast and slow muscle myotomal fibres in the pacu (Piaractus mesopotamicus)
by: Mareco, Edson A, et al.
Published: (2015)

Development of myotomal cells in Xenopus laevis larvae.
by: Huang, C L, et al.
Published: (1988)

The structure and innervation of the myotomes of the lamprey
by: Peters, A., et al.
Published: (1961)

Ca(2+) release via two-pore channel type 2 (TPC2) is required for slow muscle cell myofibrillogenesis and myotomal patterning in intact zebrafish embryos
by: Kelu, Jeffrey J., et al.
Published: (2017)

THE APPEARANCE OF ACETYLCHOLINESTERASE IN THE MYOTOME OF THE EMBRYONIC RABBIT
by: Virginia M. Tennyson, et al.
Published: (1971)

Ca2+ current in myotome cells of the lancelet (Branchiostoma lanceolatum).
by: Benterbusch, R, et al.
Published: (1992)

Letter: Gamma-glutamyl transpeptidase in myotomic dystrophy.
by: Alevizos, B, et al.
Published: (1975)

Immunoelectrophoretic study in five cases of myotomic dystrophy
by: Charles Peter Tilbery, et al.
Published: (1972)

Wnt11 acts on dermomyotome cells to guide epaxial myotome morphogenesis
by: Heilig, Ann Kathrin, et al.
Published: (2022)

Dynamic somite cell rearrangements lead to distinct waves of myotome growth
by: Frank Stellabotte, et al.
Published: (2007)

The dermomyotome ventrolateral lip is essential for the hypaxial myotome formation
by: Pu, Qin, et al.
Published: (2013)

A Two-Step Mechanism for Myotome Formation in Chick
by: Jérôme Gros, et al.
Published: (2004)

Long-term effect of total fundoplication on the myotomized esophagus
by: Philippe Topart, et al.
Published: (1992)

Flotillins control zebrafish epiboly through their role in cadherin‐mediated cell–cell adhesion
by: Eduardo Andrès Rios Morris, et al.
Published: (2017)

Contractile activation in myotomes from developing larvae of Xenopus laevis.
by: Huang, C L
Published: (1986)

Developmental changes in the distribution of acetylcholine receptors in the myotomes of Xenopus laevis.
by: Chow, I, et al.
Published: (1983)

The temporal and spatial patterning of axial myotome fibers in Xenopus laevis
by: Krneta-Stankic, Vanja, et al.
Published: (2010)

Anatomical and Electrophysiological Myotomes Corresponding to the Flexor Carpi Ulnaris Muscle
by: Pyun, Sung-Bom, et al.
Published: (2010)

Correction: The dermomyotome ventrolateral lip is essential for the hypaxial myotome formation
by: Pu, Qin, et al.
Published: (2013)

ATOH8, a regulator of skeletal myogenesis in the hypaxial myotome of the trunk
by: Balakrishnan-Renuka, Ajeesh, et al.
Published: (2013)

In vivo development of nicotinic acetylcholine receptor channels in Xenopus myotomal muscle
by: Owens, JL, et al.
Published: (1989)

Dorsal and ventral myotome motoneurons and their input during fictive locomotion in lamprey
by: Wallen, P, et al.
Published: (1985)

Adenosine 5'-triphosphate activates acetylcholine receptor channels in cultured Xenopus myotomal muscle cells.
by: Igusa, Y
Published: (1988)

Evidence in the mouse for self-renewing stem cells in the formation of a segmented longitudinal structure, the myotome
by: Jean‐François Nicolas, et al.
Published: (1996)

Adenosine 5'‐triphosphate activates acetylcholine receptor channels in cultured Xenopus myotomal muscle cells.
by: Y Igusa
Published: (1988)