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ATP4 and ciliation in the neuroectoderm and endoderm of Xenopus embryos and tadpoles. , Walentek P ., Data Brief. April 20, 2015; 4 22-31.
Symmetry breakage in the frog Xenopus: role of Rab11 and the ventral- right blastomere. , Tingler M., Genesis. June 1, 2014; 52 (6): 588-99.
The cytoskeletal protein Zyxin inhibits Shh signaling during the CNS patterning in Xenopus laevis through interaction with the transcription factor Gli1. , Martynova NY., Dev Biol. August 1, 2013; 380 (1): 37-48.
A large scale screen for neural stem cell markers in Xenopus retina. , Parain K ., Dev Neurobiol. April 1, 2012; 72 (4): 491-506.
Comparative expression analysis of the H3K27 demethylases, JMJD3 and UTX, with the H3K27 methylase, EZH2, in Xenopus. , Kawaguchi A., Int J Dev Biol. January 1, 2012; 56 (4): 295-300.
Identification and characterization of Xenopus kctd15, an ectodermal gene repressed by the FGF pathway. , Takahashi C ., Int J Dev Biol. January 1, 2012; 56 (5): 393-402.
Modeling the connectome of a simple spinal cord. , Borisyuk R., Front Neuroinform. September 23, 2011; 5 20.
MID1 and MID2 are required for Xenopus neural tube closure through the regulation of microtubule organization. , Suzuki M ., Development. July 1, 2010; 137 (14): 2329-39.
Complementary expression of HSPG 6-O-endosulfatases and 6-O-sulfotransferase in the hindbrain of Xenopus laevis. , Winterbottom EF., Gene Expr Patterns. March 1, 2009; 9 (3): 166-72.
Upstream stimulatory factors, USF1 and USF2 are differentially expressed during Xenopus embryonic development. , Fujimi TJ ., Gene Expr Patterns. July 1, 2008; 8 (6): 376-381.
The functions and possible significance of Kremen as the gatekeeper of Wnt signalling in development and pathology. , Nakamura T., J Cell Mol Med. April 1, 2008; 12 (2): 391-408.
Identification and gene expression of versican during early development of Xenopus. , Casini P., Int J Dev Biol. January 1, 2008; 52 (7): 993-8.
Regulation of ADMP and BMP2/4/7 at opposite embryonic poles generates a self-regulating morphogenetic field. , Reversade B ., Cell. December 16, 2005; 123 (6): 1147-60.
The pro-apoptotic activity of a vertebrate Bar-like homeobox gene plays a key role in patterning the Xenopus neural plate by limiting the number of chordin- and shh-expressing cells. , Offner N., Development. April 1, 2005; 132 (8): 1807-18.
Olfactory and lens placode formation is controlled by the hedgehog-interacting protein ( Xhip) in Xenopus. , Cornesse Y., Dev Biol. January 15, 2005; 277 (2): 296-315.
Neural induction in Xenopus: requirement for ectodermal and endomesodermal signals via Chordin, Noggin, beta-Catenin, and Cerberus. , Kuroda H ., PLoS Biol. May 1, 2004; 2 (5): E92.
Establishment of a ventral cell fate in the spinal cord. , Moghadam KS., Dev Dyn. August 1, 2003; 227 (4): 552-62.
Chordin is required for the Spemann organizer transplantation phenomenon in Xenopus embryos. , Oelgeschläger M ., Dev Cell. February 1, 2003; 4 (2): 219-30.
Neural and head induction by insulin-like growth factor signals. , Pera EM ., Dev Cell. November 1, 2001; 1 (5): 655-65.
The Alzheimer-related gene presenilin-1 facilitates sonic hedgehog expression in Xenopus primary neurogenesis. , Paganelli AR., Mech Dev. September 1, 2001; 107 (1-2): 119-31.
foxD5a, a Xenopus winged helix gene, maintains an immature neural ectoderm via transcriptional repression that is dependent on the C-terminal domain. , Sullivan SA., Dev Biol. April 15, 2001; 232 (2): 439-57.
Gli2 functions in FGF signaling during antero- posterior patterning. , Brewster R ., Development. October 1, 2000; 127 (20): 4395-405.
Hes6 acts in a positive feedback loop with the neurogenins to promote neuronal differentiation. , Koyano-Nakagawa N., Development. October 1, 2000; 127 (19): 4203-16.
The Xenopus homologue of Bicaudal-C is a localized maternal mRNA that can induce endoderm formation. , Wessely O ., Development. May 1, 2000; 127 (10): 2053-62.
Primary neuronal differentiation in Xenopus embryos is linked to the beta(3) subunit of the sodium pump. , Messenger NJ., Dev Biol. April 15, 2000; 220 (2): 168-82.
Characterization of a subfamily of related winged helix genes, XFD-12/12'/12" (XFLIP), during Xenopus embryogenesis. , Sölter M., Mech Dev. December 1, 1999; 89 (1-2): 161-5.
Opl: a zinc finger protein that regulates neural determination and patterning in Xenopus. , Kuo JS ., Development. August 1, 1998; 125 (15): 2867-82.
Induction and patterning of the neural crest, a stem cell-like precursor population. , LaBonne C ., J Neurobiol. August 1, 1998; 36 (2): 175-89.
Analysis of the developing Xenopus tail bud reveals separate phases of gene expression during determination and outgrowth. , Beck CW ., Mech Dev. March 1, 1998; 72 (1-2): 41-52.
XBMPRII, a novel Xenopus type II receptor mediating BMP signaling in embryonic tissues. , Frisch A., Development. February 1, 1998; 125 (3): 431-42.
The role of F-cadherin in localizing cells during neural tube formation in Xenopus embryos. , Espeseth A., Development. January 1, 1998; 125 (2): 301-12.
Gli1 is a target of Sonic hedgehog that induces ventral neural tube development. , Lee J ., Development. July 1, 1997; 124 (13): 2537-52.
Xwnt-2b is a novel axis-inducing Xenopus Wnt, which is expressed in embryonic brain. , Landesman Y., Mech Dev. May 1, 1997; 63 (2): 199-209.
Ectodermal patterning in vertebrate embryos. , Sasai Y ., Dev Biol. February 1, 1997; 182 (1): 5-20.
xGCNF, a nuclear orphan receptor is expressed during neurulation in Xenopus laevis. , Joos TO ., Mech Dev. November 1, 1996; 60 (1): 45-57.
Regulation of dorsal- ventral patterning: the ventralizing effects of the novel Xenopus homeobox gene Vox. , Schmidt JE., Development. June 1, 1996; 122 (6): 1711-21.
Activities of the Wnt-1 class of secreted signaling factors are antagonized by the Wnt-5A class and by a dominant negative cadherin in early Xenopus development. , Torres MA., J Cell Biol. June 1, 1996; 133 (5): 1123-37.
Primary sequence and developmental expression pattern of mRNAs and protein for an alpha1 subunit of the sodium pump cloned from the neural plate of Xenopus laevis. , Davies CS., Dev Biol. March 15, 1996; 174 (2): 431-47.
A Xenopus gene, Xbr-1, defines a novel class of homeobox genes and is expressed in the dorsal ciliary margin of the eye. , Papalopulu N ., Dev Biol. February 25, 1996; 174 (1): 104-14.
Developmental expression of a neuron-specific beta-tubulin in frog (Xenopus laevis): a marker for growing axons during the embryonic period. , Moody SA ., J Comp Neurol. January 8, 1996; 364 (2): 219-30.
Anti-dorsalizing morphogenetic protein is a novel TGF-beta homolog expressed in the Spemann organizer. , Moos M ., Development. December 1, 1995; 121 (12): 4293-301.
Dorsal- ventral patterning and differentiation of noggin-induced neural tissue in the absence of mesoderm. , Knecht AK., Development. June 1, 1995; 121 (6): 1927-35.
Expression patterns of Hoxb genes in the Xenopus embryo suggest roles in anteroposterior specification of the hindbrain and in dorsoventral patterning of the mesoderm. , Godsave S., Dev Biol. December 1, 1994; 166 (2): 465-76.
Regional specificity of RAR gamma isoforms in Xenopus development. , Pfeffer PL., Mech Dev. February 1, 1994; 45 (2): 147-53.
Spatial and temporal transcription patterns of the forkhead related XFD-2/XFD-2' genes in Xenopus laevis embryos. , Lef J., Mech Dev. February 1, 1994; 45 (2): 117-26.
XASH-3, a novel Xenopus achaete-scute homolog, provides an early marker of planar neural induction and position along the mediolateral axis of the neural plate. , Zimmerman K., Development. September 1, 1993; 119 (1): 221-32.
Induction of the Xenopus organizer: expression and regulation of Xnot, a novel FGF and activin-regulated homeo box gene. , von Dassow G., Genes Dev. March 1, 1993; 7 (3): 355-66.
Pintallavis, a gene expressed in the organizer and midline cells of frog embryos: involvement in the development of the neural axis. , Ruiz i Altaba A ., Development. September 1, 1992; 116 (1): 81-93.
A novel, activin-inducible, blastopore lip-specific gene of Xenopus laevis contains a fork head DNA-binding domain. , Dirksen ML., Genes Dev. April 1, 1992; 6 (4): 599-608.