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S100Z is expressed in a lateral subpopulation of olfactory receptor neurons in the main olfactory system of Xenopus laevis. , Kahl M., Dev Neurobiol. March 4, 2024;
ZSWIM4 regulates embryonic patterning and BMP signaling by promoting nuclear Smad1 degradation. , Wang C ., EMBO Rep. February 1, 2024; 25 (2): 646-671.
Paracrine regulation of neural crest EMT by placodal MMP28. , Gouignard N ., PLoS Biol. August 1, 2023; 21 (8): e3002261.
Npr3 regulates neural crest and cranial placode progenitors formation through its dual function as clearance and signaling receptor. , Devotta A., Elife. May 10, 2023; 12
Ndst1, a heparan sulfate modification enzyme, regulates neuroectodermal patterning by enhancing Wnt signaling in Xenopus. , Yamamoto T ., Dev Growth Differ. April 1, 2023; 65 (3): 153-160.
Alcohol induces neural tube defects by reducing retinoic acid signaling and promoting neural plate expansion. , Edri T., Front Cell Dev Biol. January 1, 2023; 11 1282273.
Membrane potential drives the exit from pluripotency and cell fate commitment via calcium and mTOR. , Sempou E., Nat Commun. November 5, 2022; 13 (1): 6681.
Maternal Wnt11b regulates cortical rotation during Xenopus axis formation: analysis of maternal-effect wnt11b mutants. , Houston DW ., Development. September 1, 2022; 149 (17):
Xenopus Dusp6 modulates FGF signaling to precisely pattern pre-placodal ectoderm. , Tsukano K., Dev Biol. August 1, 2022; 488 81-90.
Sobp modulates the transcriptional activation of Six1 target genes and is required during craniofacial development. , Tavares ALP., Development. September 1, 2021; 148 (17):
The dual-specificity protein kinase Clk3 is essential for Xenopus neural development. , Virgirinia RP., Biochem Biophys Res Commun. August 27, 2021; 567 99-105.
Rspo2 inhibits TCF3 phosphorylation to antagonize Wnt signaling during vertebrate anteroposterior axis specification. , Reis AH., Sci Rep. June 28, 2021; 11 (1): 13433.
TMEM79/MATTRIN defines a pathway for Frizzled regulation and is required for Xenopus embryogenesis. , Chen M., Elife. September 14, 2020; 9
Cdc2-like kinase 2 (Clk2) promotes early neural development in Xenopus embryos. , Virgirinia RP., Dev Growth Differ. August 1, 2019; 61 (6): 365-377.
Xenopus slc7a5 is essential for notochord function and eye development. , Katada T., Mech Dev. February 1, 2019; 155 48-59.
Gli2 is required for the induction and migration of Xenopus laevis neural crest. , Cerrizuela S., Mech Dev. December 1, 2018; 154 219-239.
The neural border: Induction, specification and maturation of the territory that generates neural crest cells. , Pla P., Dev Biol. December 1, 2018; 444 Suppl 1 S36-S46.
Fam46a regulates BMP-dependent pre-placodal ectoderm differentiation in Xenopus. , Watanabe T., Development. October 26, 2018; 145 (20):
Dkk2 promotes neural crest specification by activating Wnt/ β-catenin signaling in a GSK3β independent manner. , Devotta A., Elife. July 23, 2018; 7
Roles of Xenopus chemokine ligand CXCLh (XCXCLh) in early embryogenesis. , Goto T ., Dev Growth Differ. May 1, 2018; 60 (4): 226-238.
Coordinated regulation of the dorsal- ventral and anterior- posterior patterning of Xenopus embryos by the BTB/POZ zinc finger protein Zbtb14. , Takebayashi-Suzuki K., Dev Growth Differ. April 1, 2018; 60 (3): 158-173.
Neural crest development in Xenopus requires Protocadherin 7 at the lateral neural crest border. , Bradley RS ., Mech Dev. February 1, 2018; 149 41-52.
FGF mediated MAPK and PI3K/Akt Signals make distinct contributions to pluripotency and the establishment of Neural Crest. , Geary L., Elife. January 19, 2018; 7
PFKFB4 control of AKT signaling is essential for premigratory and migratory neural crest formation. , Figueiredo AL., Development. November 15, 2017; 144 (22): 4183-4194.
A molecular atlas of the developing ectoderm defines neural, neural crest, placode, and nonneural progenitor identity in vertebrates. , Plouhinec JL., PLoS Biol. October 19, 2017; 15 (10): e2004045.
Wbp2nl has a developmental role in establishing neural and non-neural ectodermal fates. , Marchak A., Dev Biol. September 1, 2017; 429 (1): 213-224.
Similarity in gene-regulatory networks suggests that cancer cells share characteristics of embryonic neural cells. , Zhang Z ., J Biol Chem. August 4, 2017; 292 (31): 12842-12859.
Nodal/Activin Pathway is a Conserved Neural Induction Signal in Chordates. , Le Petillon Y., Nat Ecol Evol. August 1, 2017; 1 (8): 1192-1200.
ZC4H2 stabilizes Smads to enhance BMP signalling, which is involved in neural development in Xenopus. , Ma P., Open Biol. August 1, 2017; 7 (8):
Functional Reintegration of Sensory Neurons and Transitional Dendritic Reduction of Mitral/Tufted Cells during Injury-Induced Recovery of the Larval Xenopus Olfactory Circuit. , Hawkins SJ., Front Cell Neurosci. July 21, 2017; 11 380.
Noggin is required for first pharyngeal arch differentiation in the frog Xenopus tropicalis. , Young JJ ., Dev Biol. June 15, 2017; 426 (2): 245-254.
sall1 and sall4 repress pou5f3 family expression to allow neural patterning, differentiation, and morphogenesis in Xenopus laevis. , Exner CRT., Dev Biol. May 1, 2017; 425 (1): 33-43.
The neuronal and astrocytic protein SLC38A10 transports glutamine, glutamate, and aspartate, suggesting a role in neurotransmission. , Hellsten SV., FEBS Open Bio. April 26, 2017; 7 (6): 730-746.
Distinct intracellular Ca2+ dynamics regulate apical constriction and differentially contribute to neural tube closure. , Suzuki M ., Development. April 1, 2017; 144 (7): 1307-1316.
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.
Sf3b4-depleted Xenopus embryos: A model to study the pathogenesis of craniofacial defects in Nager syndrome. , Devotta A., Dev Biol. July 15, 2016; 415 (2): 371-382.
Cell-Autonomous Ca(2+) Flashes Elicit Pulsed Contractions of an Apical Actin Network to Drive Apical Constriction during Neural Tube Closure. , Christodoulou N., Cell Rep. December 15, 2015; 13 (10): 2189-202.
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.
Kcnip1 a Ca²⁺-dependent transcriptional repressor regulates the size of the neural plate in Xenopus. , Néant I., Biochim Biophys Acta. September 1, 2015; 1853 (9): 2077-85.
Xenopus Pkdcc1 and Pkdcc2 Are Two New Tyrosine Kinases Involved in the Regulation of JNK Dependent Wnt/PCP Signaling Pathway. , Vitorino M., PLoS One. August 13, 2015; 10 (8): e0135504.
Functional analysis of Hairy genes in Xenopus neural crest initial specification and cell migration. , Vega-López GA., Dev Dyn. August 1, 2015; 244 (8): 988-1013.
Kdm2a/b Lysine Demethylases Regulate Canonical Wnt Signaling by Modulating the Stability of Nuclear β-Catenin. , Lu L., Dev Cell. June 22, 2015; 33 (6): 660-74.
Notum is required for neural and head induction via Wnt deacylation, oxidation, and inactivation. , Zhang X., Dev Cell. March 23, 2015; 32 (6): 719-30.
The ribosome biogenesis factor Nol11 is required for optimal rDNA transcription and craniofacial development in Xenopus. , Griffin JN., PLoS Genet. March 10, 2015; 11 (3): e1005018.
Efficient retina formation requires suppression of both Activin and BMP signaling pathways in pluripotent cells. , Wong KA., Biol Open. March 6, 2015; 4 (4): 573-83.
Pax8 and Pax2 are specifically required at different steps of Xenopus pronephros development. , Buisson I ., Dev Biol. January 15, 2015; 397 (2): 175-90.
PV.1 induced by FGF- Xbra functions as a repressor of neurogenesis in Xenopus embryos. , Yoon J., BMB Rep. December 1, 2014; 47 (12): 673-8.
Sox5 Is a DNA-binding cofactor for BMP R-Smads that directs target specificity during patterning of the early ectoderm. , Nordin K., Dev Cell. November 10, 2014; 31 (3): 374-382.
Specific induction of cranial placode cells from Xenopus ectoderm by modulating the levels of BMP, Wnt and FGF signaling. , Watanabe T., Genesis. October 1, 2014; .
Developmental expression and role of Kinesin Eg5 during Xenopus laevis embryogenesis. , Fernández JP., Dev Dyn. April 1, 2014; 243 (4): 527-40.