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Prdm15 acts upstream of Wnt4 signaling in anterior neural development of Xenopus laevis. , Saumweber E., Front Cell Dev Biol. January 1, 2024; 12 1316048.
Xenopus Dusp6 modulates FGF signaling to precisely pattern pre-placodal ectoderm. , Tsukano K., Dev Biol. August 1, 2022; 488 81-90.
Cellular response to spinal cord injury in regenerative and non-regenerative stages in Xenopus laevis. , Edwards-Faret G., Neural Dev. February 2, 2021; 16 (1): 2.
Neural tube closure requires the endocytic receptor Lrp2 and its functional interaction with intracellular scaffolds. , Kowalczyk I., Development. January 26, 2021; 148 (2):
Otic Neurogenesis in Xenopus laevis: Proliferation, Differentiation, and the Role of Eya1. , Almasoudi SH., Front Neuroanat. January 1, 2021; 15 722374.
Interplay of TRIM2 E3 Ubiquitin Ligase and ALIX/ESCRT Complex: Control of Developmental Plasticity During Early Neurogenesis. , Lokapally A., Cells. July 20, 2020; 9 (7):
Dach1 regulates neural crest migration during embryonic development. , Kim YK., Biochem Biophys Res Commun. July 5, 2020; 527 (4): 896-901.
The tumor suppressor PTPRK promotes ZNRF3 internalization and is required for Wnt inhibition in the Spemann organizer. , Chang LS., Elife. January 14, 2020; 9
Barhl2 maintains T cell factors as repressors and thereby switches off the Wnt/ β-Catenin response driving Spemann organizer formation. , Sena E., Development. May 22, 2019; 146 (10):
Physiological effects of KDM5C on neural crest migration and eye formation during vertebrate development. , Kim Y., Epigenetics Chromatin. December 6, 2018; 11 (1): 72.
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.
Dissecting the pre-placodal transcriptome to reveal presumptive direct targets of Six1 and Eya1 in cranial placodes. , Riddiford N., Elife. August 31, 2016; 5
Bioelectric signalling via potassium channels: a mechanism for craniofacial dysmorphogenesis in KCNJ2-associated Andersen-Tawil Syndrome. , Adams DS ., J Physiol. June 15, 2016; 594 (12): 3245-70.
Assessing Primary Neurogenesis in Xenopus Embryos Using Immunostaining. , Zhang S ., J Vis Exp. April 12, 2016; (110): e53949.
Analysis of neural progenitors from embryogenesis to juvenile adult in Xenopus laevis reveals biphasic neurogenesis and continuous lengthening of the cell cycle. , Thuret R ., Biol Open. November 30, 2015; 4 (12): 1772-81.
Kruppel-like factor family genes are expressed during Xenopus embryogenesis and involved in germ layer formation and body axis patterning. , Gao Y., Dev Dyn. October 1, 2015; 244 (10): 1328-46.
Prdm12 specifies V1 interneurons through cross-repressive interactions with Dbx1 and Nkx6 genes in Xenopus. , Thélie A., Development. October 1, 2015; 142 (19): 3416-28.
Early development of the neural plate: new roles for apoptosis and for one of its main effectors caspase-3. , Juraver-Geslin HA ., Genesis. February 1, 2015; 53 (2): 203-24.
The evolutionary history of vertebrate cranial placodes II. Evolution of ectodermal patterning. , Schlosser G ., Dev Biol. May 1, 2014; 389 (1): 98-119.
The Prdm13 histone methyltransferase encoding gene is a Ptf1a- Rbpj downstream target that suppresses glutamatergic and promotes GABAergic neuronal fate in the dorsal neural tube. , Hanotel J., Dev Biol. February 15, 2014; 386 (2): 340-57.
NumbL is essential for Xenopus primary neurogenesis. , Nieber F., BMC Dev Biol. October 14, 2013; 13 36.
ERF and ETV3L are retinoic acid-inducible repressors required for primary neurogenesis. , Janesick A ., Development. August 1, 2013; 140 (15): 3095-106.
sox4 and sox11 function during Xenopus laevis eye development. , Cizelsky W., PLoS One. July 1, 2013; 8 (7): e69372.
Involvement of XZFP36L1, an RNA-binding protein, in Xenopus neural development. , Xia YJ., Dongwuxue Yanjiu. December 1, 2012; 33 (E5-6): E82-8.
Defining progressive stages in the commitment process leading to embryonic lens formation. , Jin H., Genesis. October 1, 2012; 50 (10): 728-40.
ATP4a is required for Wnt-dependent Foxj1 expression and leftward flow in Xenopus left- right development. , Walentek P ., Cell Rep. May 31, 2012; 1 (5): 516-27.
A hindbrain-repressive Wnt3a/ Meis3/ Tsh1 circuit promotes neuronal differentiation and coordinates tissue maturation. , Elkouby YM., Development. April 1, 2012; 139 (8): 1487-97.
Short chain dehydrogenase/reductase rdhe2 is a novel retinol dehydrogenase essential for frog embryonic development. , Belyaeva OV., J Biol Chem. March 16, 2012; 287 (12): 9061-71.
Maternal xNorrin, a canonical Wnt signaling agonist and TGF-β antagonist, controls early neuroectoderm specification in Xenopus. , Xu S., PLoS Biol. January 1, 2012; 10 (3): e1001286.
Regulation of XFGF8 gene expression through SRY (sex-determining region Y)-box 2 in developing Xenopus embryos. , Kim YH., Reprod Fertil Dev. January 1, 2012; 24 (6): 769-77.
The homeobox leucine zipper gene Homez plays a role in Xenopus laevis neurogenesis. , Ghimouz R., Biochem Biophys Res Commun. November 11, 2011; 415 (1): 11-6.
Over-expression of atf4 in Xenopus embryos interferes with neurogenesis and eye formation. , Liu JT ., Dongwuxue Yanjiu. October 1, 2011; 32 (5): 485-91.
Xenopus laevis insulin receptor substrate IRS-1 is important for eye development. , Bugner V., Dev Dyn. July 1, 2011; 240 (7): 1705-15.
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.
MicroRNA-9 reveals regional diversity of neural progenitors along the anterior- posterior axis. , Bonev B., Dev Cell. January 18, 2011; 20 (1): 19-32.
Gadd45a and Gadd45g regulate neural development and exit from pluripotency in Xenopus. , Kaufmann LT., Mech Dev. January 1, 2011; 128 (7-10): 401-11.
Neural crest migration requires the activity of the extracellular sulphatases XtSulf1 and XtSulf2. , Guiral EC., Dev Biol. May 15, 2010; 341 (2): 375-88.
B1 SOX coordinate cell specification with patterning and morphogenesis in the early zebrafish embryo. , Okuda Y., PLoS Genet. May 6, 2010; 6 (5): e1000936.
FMR1/ FXR1 and the miRNA pathway are required for eye and neural crest development. , Gessert S., Dev Biol. May 1, 2010; 341 (1): 222-35.
BMP antagonists and FGF signaling contribute to different domains of the neural plate in Xenopus. , Wills AE ., Dev Biol. January 15, 2010; 337 (2): 335-50.
Cloning and expression analysis of the anterior parahox genes, Gsh1 and Gsh2 from Xenopus tropicalis. , Illes JC., Dev Dyn. January 1, 2009; 238 (1): 194-203.
Evolution of non-coding regulatory sequences involved in the developmental process: reflection of differential employment of paralogous genes as highlighted by Sox2 and group B1 Sox genes. , Kamachi Y., Proc Jpn Acad Ser B Phys Biol Sci. January 1, 2009; 85 (2): 55-68.
Hairy2- Id3 interactions play an essential role in Xenopus neural crest progenitor specification. , Nichane M., Dev Biol. October 15, 2008; 322 (2): 355-67.
Eya1 and Six1 promote neurogenesis in the cranial placodes in a SoxB1-dependent fashion. , Schlosser G ., Dev Biol. August 1, 2008; 320 (1): 199-214.
Sox3 expression is maintained by FGF signaling and restricted to the neural plate by Vent proteins in the Xenopus embryo. , Rogers CD., Dev Biol. January 1, 2008; 313 (1): 307-19.
Neural induction requires continued suppression of both Smad1 and Smad2 signals during gastrulation. , Chang C ., Development. November 1, 2007; 134 (21): 3861-72.
Neural crests are actively precluded from the anterior neural fold by a novel inhibitory mechanism dependent on Dickkopf1 secreted by the prechordal mesoderm. , Carmona-Fontaine C., Dev Biol. September 15, 2007; 309 (2): 208-21.
XSip1 neuralizing activity involves the co-repressor CtBP and occurs through BMP dependent and independent mechanisms. , van Grunsven LA., Dev Biol. June 1, 2007; 306 (1): 34-49.
Tes regulates neural crest migration and axial elongation in Xenopus. , Dingwell KS., Dev Biol. May 1, 2006; 293 (1): 252-67.
Mxi1 is essential for neurogenesis in Xenopus and acts by bridging the pan-neural and proneural genes. , Klisch TJ., Dev Biol. April 15, 2006; 292 (2): 470-85.