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The early dorsal signal in vertebrate embryos requires endolysosomal membrane trafficking. , Azbazdar Y., Bioessays. January 1, 2024; 46 (1): e2300179.
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):
Normal Table of Xenopus development: a new graphical resource. , Zahn N ., Development. July 15, 2022; 149 (14):
Combinatorial transcription factor activities on open chromatin induce embryonic heterogeneity in vertebrates. , Bright AR., EMBO J. May 3, 2021; 40 (9): e104913.
Chromatin accessibility and histone acetylation in the regulation of competence in early development. , Esmaeili M., Dev Biol. June 1, 2020; 462 (1): 20-35.
BAP1 regulates epigenetic switch from pluripotency to differentiation in developmental lineages giving rise to BAP1-mutant cancers. , Kuznetsov JN ., Sci Adv. September 18, 2019; 5 (9): eaax1738.
The Spatiotemporal Control of Zygotic Genome Activation. , Gentsch GE ., iScience. June 28, 2019; 16 485-498.
Endodermal Maternal Transcription Factors Establish Super-Enhancers during Zygotic Genome Activation. , Paraiso KD ., Cell Rep. June 4, 2019; 27 (10): 2962-2977.e5.
Retinoic acid-induced expression of Hnf1b and Fzd4 is required for pancreas development in Xenopus laevis. , Gere-Becker MB., Development. June 8, 2018; 145 (12):
Roles of Xenopus chemokine ligand CXCLh (XCXCLh) in early embryogenesis. , Goto T ., Dev Growth Differ. May 1, 2018; 60 (4): 226-238.
Developmentally regulated long non-coding RNAs in Xenopus tropicalis. , Forouzmand E., Dev Biol. June 15, 2017; 426 (2): 401-408.
High-throughput analysis reveals novel maternal germline RNAs crucial for primordial germ cell preservation and proper migration. , Owens DA ., Development. January 15, 2017; 144 (2): 292-304.
Gtpbp2 is a positive regulator of Wnt signaling and maintains low levels of the Wnt negative regulator Axin. , Gillis WQ., Cell Commun Signal. August 2, 2016; 14 (1): 15.
Transcription factors Mix1 and VegT, relocalization of vegt mRNA, and conserved endoderm and dorsal specification in frogs. , Sudou N ., Proc Natl Acad Sci U S A. May 17, 2016; 113 (20): 5628-33.
Hermes (Rbpms) is a Critical Component of RNP Complexes that Sequester Germline RNAs during Oogenesis. , Aguero T ., J Dev Biol. March 1, 2016; 4 (1):
A novel role for Ascl1 in the regulation of mesendoderm formation via HDAC-dependent antagonism of VegT. , Gao L., Development. February 1, 2016; 143 (3): 492-503.
Specification of anteroposterior axis by combinatorial signaling during Xenopus development. , Carron C., Wiley Interdiscip Rev Dev Biol. January 1, 2016; 5 (2): 150-68.
Molecular asymmetry in the 8-cell stage Xenopus tropicalis embryo described by single blastomere transcript sequencing. , De Domenico E., Dev Biol. December 15, 2015; 408 (2): 252-68.
Sebox regulates mesoderm formation in early amphibian embryos. , Chen G., Dev Dyn. November 1, 2015; 244 (11): 1415-26.
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.
Small C-terminal Domain Phosphatase 3 Dephosphorylates the Linker Sites of Receptor-regulated Smads (R-Smads) to Ensure Transforming Growth Factor β (TGFβ)-mediated Germ Layer Induction in Xenopus Embryos. , Sun G ., J Biol Chem. July 10, 2015; 290 (28): 17239-49.
E2a is necessary for Smad2/3-dependent transcription and the direct repression of lefty during gastrulation. , Wills AE ., Dev Cell. February 9, 2015; 32 (3): 345-57.
Xenopus laevis FGF receptor substrate 3 (XFrs3) is important for eye development and mediates Pax6 expression in lens placode through its Shp2-binding sites. , Kim YJ., Dev Biol. January 1, 2015; 397 (1): 129-39.
Direct regulation of siamois by VegT is required for axis formation in Xenopus embryo. , Li HY., Int J Dev Biol. January 1, 2015; 59 (10-12): 443-51.
Cell-autonomous signal transduction in the Xenopus egg Wnt/ β-catenin pathway. , Motomura E., Dev Growth Differ. December 1, 2014; 56 (9): 640-52.
Genome-wide view of TGFβ/ Foxh1 regulation of the early mesendoderm program. , Chiu WT ., Development. December 1, 2014; 141 (23): 4537-47.
The splicing factor PQBP1 regulates mesodermal and neural development through FGF signaling. , Iwasaki Y ., Development. October 1, 2014; 141 (19): 3740-51.
Occupancy of tissue-specific cis-regulatory modules by Otx2 and TLE/Groucho for embryonic head specification. , Yasuoka Y ., Nat Commun. July 9, 2014; 5 4322.
High-resolution analysis of gene activity during the Xenopus mid- blastula transition. , Collart C ., Development. May 1, 2014; 141 (9): 1927-39.
The Xenopus homologue of Down syndrome critical region protein 6 drives dorsoanterior gene expression and embryonic axis formation by antagonising polycomb group proteins. , Li HY., Development. December 1, 2013; 140 (24): 4903-13.
In vivo T-box transcription factor profiling reveals joint regulation of embryonic neuromesodermal bipotency. , Gentsch GE ., Cell Rep. September 26, 2013; 4 (6): 1185-96.
RNA localization in Xenopus oocytes uses a core group of trans-acting factors irrespective of destination. , Snedden DD., RNA. July 1, 2013; 19 (7): 889-95.
Maternal Dead-End1 is required for vegetal cortical microtubule assembly during Xenopus axis specification. , Mei W., Development. June 1, 2013; 140 (11): 2334-44.
Suv4-20h histone methyltransferases promote neuroectodermal differentiation by silencing the pluripotency-associated Oct-25 gene. , Nicetto D., PLoS Genet. January 1, 2013; 9 (1): e1003188.
Localisation of RNAs into the germ plasm of vitellogenic Xenopus oocytes. , Nijjar S., PLoS One. January 1, 2013; 8 (4): e61847.
Transcriptional regulation of mesoderm genes by MEF2D during early Xenopus development. , Kolpakova A ., PLoS One. January 1, 2013; 8 (7): e69693.
Single blastomere expression profiling of Xenopus laevis embryos of 8 to 32-cells reveals developmental asymmetry. , Flachsova M., Sci Rep. January 1, 2013; 3 2278.
The many functions of mRNA localization during normal development and disease: from pillar to post. , Cody NA., Wiley Interdiscip Rev Dev Biol. January 1, 2013; 2 (6): 781-96.
Expression of XNOA 36 in the mitochondrial cloud of Xenopus laevis oocytes. , Vaccaro MC., Zygote. August 1, 2012; 20 (3): 237-42.
Dynamic in vivo binding of transcription factors to cis-regulatory modules of cer and gsc in the stepwise formation of the Spemann-Mangold organizer. , Sudou N ., Development. May 1, 2012; 139 (9): 1651-61.
Xenopus Nanos1 is required to prevent endoderm gene expression and apoptosis in primordial germ cells. , Lai F ., Development. April 1, 2012; 139 (8): 1476-86.
The RNA-binding protein XSeb4R regulates maternal Sox3 at the posttranscriptional level during maternal-zygotic transition in Xenopus. , Bentaya S., Dev Biol. March 15, 2012; 363 (2): 362-72.
Foxi2 is an animally localized maternal mRNA in Xenopus, and an activator of the zygotic ectoderm activator Foxi1e. , Cha SW ., PLoS One. January 1, 2012; 7 (7): e41782.
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.
The roles of maternal Vangl2 and aPKC in Xenopus oocyte and embryo patterning. , Cha SW ., Development. September 1, 2011; 138 (18): 3989-4000.
The functions of maternal Dishevelled 2 and 3 in the early Xenopus embryo. , Tadjuidje E ., Dev Dyn. July 1, 2011; 240 (7): 1727-36.
Programming pluripotent precursor cells derived from Xenopus embryos to generate specific tissues and organs. , Borchers A ., Genes (Basel). November 18, 2010; 1 (3): 413-26.
Xenopus furry contributes to release of microRNA gene silencing. , Goto T ., Proc Natl Acad Sci U S A. November 9, 2010; 107 (45): 19344-9.
Identification of germ plasm-associated transcripts by microarray analysis of Xenopus vegetal cortex RNA. , Cuykendall TN ., Dev Dyn. June 1, 2010; 239 (6): 1838-48.