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Ash2l, an obligatory component of H3K4 methylation complexes, regulates neural crest development. , Mohammadparast S., Dev Biol. December 1, 2022; 492 14-24.
The Ribosomal Protein L5 Functions During Xenopus Anterior Development Through Apoptotic Pathways. , Schreiner C., Front Cell Dev Biol. January 1, 2022; 10 777121.
Ttc30a affects tubulin modifications in a model for ciliary chondrodysplasia with polycystic kidney disease. , Getwan M ., Proc Natl Acad Sci U S A. September 28, 2021; 118 (39):
A systemic cell cycle block impacts stage-specific histone modification profiles during Xenopus embryogenesis. , Pokrovsky D., PLoS Biol. September 1, 2021; 19 (9): e3001377.
Ptk7 Is Dynamically Localized at Neural Crest Cell-Cell Contact Sites and Functions in Contact Inhibition of Locomotion. , Grund A., Int J Mol Sci. August 28, 2021; 22 (17):
BMP signaling is enhanced intracellularly by FHL3 controlling WNT-dependent spatiotemporal emergence of the neural crest. , Alkobtawi M., Cell Rep. June 22, 2021; 35 (12): 109289.
Kindlin2 regulates neural crest specification via integrin-independent regulation of the FGF signaling pathway. , Wang H., Development. May 15, 2021; 148 (10):
Chromatin accessibility and histone acetylation in the regulation of competence in early development. , Esmaeili M., Dev Biol. June 1, 2020; 462 (1): 20-35.
The histone methyltransferase KMT2D, mutated in Kabuki syndrome patients, is required for neural crest cell formation and migration. , Schwenty-Lara J., Hum Mol Genet. January 15, 2020; 29 (2): 305-319.
Modeling Bainbridge-Ropers Syndrome in Xenopus laevis Embryos. , Lichtig H., Front Physiol. January 1, 2020; 11 75.
A new transgenic reporter line reveals Wnt-dependent Snai2 re-expression and cranial neural crest differentiation in Xenopus. , Li J., Sci Rep. August 1, 2019; 9 (1): 11191.
PDGF-B: The missing piece in the mosaic of PDGF family role in craniofacial development. , Corsinovi D., Dev Dyn. July 1, 2019; 248 (7): 603-612.
Latrophilin2 is involved in neural crest cell migration and placode patterning in Xenopus laevis. , Yokote N., Int J Dev Biol. January 1, 2019; 63 (1-2): 29-35.
Wolf-Hirschhorn Syndrome-Associated Genes Are Enriched in Motile Neural Crest Cells and Affect Craniofacial Development in Xenopus laevis. , Mills A., Front Physiol. January 1, 2019; 10 431.
Physiological effects of KDM5C on neural crest migration and eye formation during vertebrate development. , Kim Y., Epigenetics Chromatin. December 6, 2018; 11 (1): 72.
Control of neural crest induction by MarvelD3-mediated attenuation of JNK signalling. , Vacca B., Sci Rep. January 19, 2018; 8 (1): 1204.
Gene expression of the two developmentally regulated dermatan sulfate epimerases in the Xenopus embryo. , Gouignard N ., PLoS One. January 18, 2018; 13 (1): e0191751.
The Nedd4 binding protein 3 is required for anterior neural development in Xenopus laevis. , Kiem LM., Dev Biol. March 1, 2017; 423 (1): 66-76.
Apolipoprotein C-I mediates Wnt/Ctnnb1 signaling during neural border formation and is required for neural crest development. , Yokota C., Int J Dev Biol. January 1, 2017; 61 (6-7): 415-425.
Controlled levels of canonical Wnt signaling are required for neural crest migration. , Maj E., Dev Biol. September 1, 2016; 417 (1): 77-90.
Ror2 signaling is required for local upregulation of GDF6 and activation of BMP signaling at the neural plate border. , Schille C., Development. September 1, 2016; 143 (17): 3182-94.
In vivo confinement promotes collective migration of neural crest cells. , Szabó A., J Cell Biol. June 6, 2016; 213 (5): 543-55.
Differential requirement of bone morphogenetic protein receptors Ia (ALK3) and Ib (ALK6) in early embryonic patterning and neural crest development. , Schille C., BMC Dev Biol. January 19, 2016; 16 1.
Genes regulated by potassium channel tetramerization domain containing 15 (Kctd15) in the developing neural crest. , Wong TC., Int J Dev Biol. January 1, 2016; 60 (4-6): 159-66.
Neural crest specification by Prohibitin1 depends on transcriptional regulation of prl3 and vangl1. , Deichmann C., Genesis. October 1, 2015; 53 (10): 627-39.
The Proto-oncogene Transcription Factor Ets1 Regulates Neural Crest Development through Histone Deacetylase 1 to Mediate Output of Bone Morphogenetic Protein Signaling. , Wang C ., J Biol Chem. September 4, 2015; 290 (36): 21925-38.
Snail2/ Slug cooperates with Polycomb repressive complex 2 (PRC2) to regulate neural crest development. , Tien CL., Development. February 15, 2015; 142 (4): 722-31.
GSK3 and Polo-like kinase regulate ADAM13 function during cranial neural crest cell migration. , Abbruzzese G ., Mol Biol Cell. December 15, 2014; 25 (25): 4072-82.
Chibby functions in Xenopus ciliary assembly, embryonic development, and the regulation of gene expression. , Shi J., Dev Biol. November 15, 2014; 395 (2): 287-98.
Identification of Pax3 and Zic1 targets in the developing neural crest. , Bae CJ., Dev Biol. February 15, 2014; 386 (2): 473-83.
Protocadherin PAPC is expressed in the CNC and can compensate for the loss of PCNS. , Schneider M., Genesis. February 1, 2014; 52 (2): 120-6.
Plakophilin-3 catenin associates with the ETV1/ ER81 transcription factor to positively modulate gene activity. , Munoz WA., PLoS One. January 1, 2014; 9 (1): e86784.
A secreted splice variant of the Xenopus frizzled-4 receptor is a biphasic modulator of Wnt signalling. , Gorny AK., Cell Commun Signal. November 19, 2013; 11 89.
Xenopus laevis nucleotide binding protein 1 (xNubp1) is important for convergent extension movements and controls ciliogenesis via regulation of the actin cytoskeleton. , Ioannou A ., Dev Biol. August 15, 2013; 380 (2): 243-58.
Pax3 and Zic1 drive induction and differentiation of multipotent, migratory, and functional neural crest in Xenopus embryos. , Milet C., Proc Natl Acad Sci U S A. April 2, 2013; 110 (14): 5528-33.
sizzled function and secreted factor network dynamics. , Shi J., Biol Open. March 15, 2012; 1 (3): 286-94.
The LIM adaptor protein LMO4 is an essential regulator of neural crest development. , Ochoa SD., Dev Biol. January 15, 2012; 361 (2): 313-25.
Plakophilin-3 is required for late embryonic amphibian development, exhibiting roles in ectodermal and neural tissues. , Munoz WA., PLoS One. January 1, 2012; 7 (4): e34342.
ARVCF depletion cooperates with Tbx1 deficiency in the development of 22q11.2DS-like phenotypes in Xenopus. , Tran HT., Dev Dyn. December 1, 2011; 240 (12): 2680-7.
Kazrin, and its binding partners ARVCF- and delta-catenin, are required for Xenopus laevis craniofacial development. , Cho K., Dev Dyn. December 1, 2011; 240 (12): 2601-12.
Snail2 controls mesodermal BMP/Wnt induction of neural crest. , Shi J., Development. August 1, 2011; 138 (15): 3135-45.
Peter Pan functions independently of its role in ribosome biogenesis during early eye and craniofacial cartilage development in Xenopus laevis. , Bugner V., Development. June 1, 2011; 138 (11): 2369-78.
SNW1 is a critical regulator of spatial BMP activity, neural plate border formation, and neural crest specification in vertebrate embryos. , Wu MY., PLoS Biol. February 15, 2011; 9 (2): e1000593.
PlexinA1 interacts with PTK7 and is required for neural crest migration. , Wagner G., Biochem Biophys Res Commun. November 12, 2010; 402 (2): 402-7.
Neural crest migration requires the activity of the extracellular sulphatases XtSulf1 and XtSulf2. , Guiral EC., Dev Biol. May 15, 2010; 341 (2): 375-88.
CHD7 cooperates with PBAF to control multipotent neural crest formation. , Bajpai R ., Nature. February 18, 2010; 463 (7283): 958-62.
Diversification of the expression patterns and developmental functions of the dishevelled gene family during chordate evolution. , Gray RS ., Dev Dyn. August 1, 2009; 238 (8): 2044-57.
Xenopus ADAM19 is involved in neural, neural crest and muscle development. , Neuner R., Mech Dev. January 1, 2009; 126 (3-4): 240-55.
Samba, a Xenopus hnRNP expressed in neural and neural crest tissues. , Yan CY., Dev Dyn. January 1, 2009; 238 (1): 204-9.
Extracellular cleavage of cadherin-11 by ADAM metalloproteases is essential for Xenopus cranial neural crest cell migration. , McCusker C., Mol Biol Cell. January 1, 2009; 20 (1): 78-89.