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Inducible and tissue-specific cell labeling in Cre-ERT2 transgenic Xenopus lines. , Lin TY., Dev Growth Differ. June 1, 2022; 64 (5): 243-253.
A systemic cell cycle block impacts stage-specific histone modification profiles during Xenopus embryogenesis. , Pokrovsky D., PLoS Biol. September 1, 2021; 19 (9): e3001377.
Anatomical and histological analyses reveal that tail repair is coupled with regrowth in wild-caught, juvenile American alligators (Alligator mississippiensis). , Xu C., Sci Rep. November 18, 2020; 10 (1): 20122.
The myeloid lineage is required for the emergence of a regeneration-permissive environment following Xenopus tail amputation. , Aztekin C ., Development. February 5, 2020; 147 (3):
Loss of function of Kmt2d, a gene mutated in Kabuki syndrome, affects heart development in Xenopus laevis. , Schwenty-Lara J., Dev Dyn. June 1, 2019; 248 (6): 465-476.
Innate Immune Response and Off-Target Mis-splicing Are Common Morpholino-Induced Side Effects in Xenopus. , Gentsch GE ., Dev Cell. March 12, 2018; 44 (5): 597-610.e10.
Id genes are essential for early heart formation. , Cunningham TJ., Genes Dev. July 1, 2017; 31 (13): 1325-1338.
Analysis of Craniocardiac Malformations in Xenopus using Optical Coherence Tomography. , Deniz E ., Sci Rep. February 14, 2017; 7 42506.
Molecular model for force production and transmission during vertebrate gastrulation. , Pfister K., Development. February 15, 2016; 143 (4): 715-27.
A developmentally regulated switch from stem cells to dedifferentiation for limb muscle regeneration in newts. , Tanaka HV ., Nat Commun. January 12, 2016; 7 11069.
A thioredoxin fold protein Sh3bgr regulates Enah and is necessary for proper sarcomere formation. , Jang DG., Dev Biol. September 1, 2015; 405 (1): 1-9.
The Xenopus Tgfbi is required for embryogenesis through regulation of canonical Wnt signalling. , Wang F., Dev Biol. July 1, 2013; 379 (1): 16-27.
Developmental expression and cardiac transcriptional regulation of Myh7b, a third myosin heavy chain in the vertebrate heart. , Warkman AS ., Cytoskeleton (Hoboken). May 1, 2012; 69 (5): 324-35.
Early cardiac morphogenesis defects caused by loss of embryonic macrophage function in Xenopus. , Smith SJ ., Mech Dev. January 1, 2011; 128 (5-6): 303-15.
Paralysis and delayed Z-disc formation in the Xenopus tropicalis unc45b mutant dicky ticker. , Geach TJ ., BMC Dev Biol. January 22, 2010; 10 75.
Absence of heartbeat in the Xenopus tropicalis mutation muzak is caused by a nonsense mutation in cardiac myosin myh6. , Abu-Daya A., Dev Biol. December 1, 2009; 336 (1): 20-9.
Notch activates Wnt-4 signalling to control medio- lateral patterning of the pronephros. , Naylor RW., Development. November 1, 2009; 136 (21): 3585-95.
The keratin-related Ouroboros proteins function as immune antigens mediating tail regression in Xenopus metamorphosis. , Mukaigasa K., Proc Natl Acad Sci U S A. October 27, 2009; 106 (43): 18309-14.
Normal levels of p27 are necessary for somite segmentation and determining pronephric organ size. , Naylor RW., Organogenesis. October 1, 2009; 5 (4): 201-10.
In vitro organogenesis from undifferentiated cells in Xenopus. , Asashima M ., Dev Dyn. June 1, 2009; 238 (6): 1309-20.
DM-GRASP/ ALCAM/ CD166 is required for cardiac morphogenesis and maintenance of cardiac identity in first heart field derived cells. , Gessert S., Dev Biol. September 1, 2008; 321 (1): 150-61.
Vertebrate CASTOR is required for differentiation of cardiac precursor cells at the ventral midline. , Christine KS ., Dev Cell. April 1, 2008; 14 (4): 616-23.
A role of D domain-related proteins in differentiation and migration of embryonic cells in Xenopus laevis. , Shibata T., Mech Dev. January 1, 2008; 125 (3-4): 284-98.
The cdx genes and retinoic acid control the positioning and segmentation of the zebrafish pronephros. , Wingert RA., PLoS Genet. October 1, 2007; 3 (10): 1922-38.
UNC-98 links an integrin-associated complex to thick filaments in Caenorhabditis elegans muscle. , Miller RK ., J Cell Biol. December 18, 2006; 175 (6): 853-9.
Xtn3 is a developmentally expressed cardiac and skeletal muscle-specific novex-3 titin isoform. , Brown DD ., Gene Expr Patterns. October 1, 2006; 6 (8): 913-8.
Genetic screens for mutations affecting development of Xenopus tropicalis. , Goda T., PLoS Genet. June 1, 2006; 2 (6): e91.
p38 MAP kinase regulates the expression of XMyf5 and affects distinct myogenic programs during Xenopus development. , Keren A., Dev Biol. December 1, 2005; 288 (1): 73-86.
The RNA-binding protein fragile X-related 1 regulates somite formation in Xenopus laevis. , Huot ME., Mol Biol Cell. September 1, 2005; 16 (9): 4350-61.
Larval antigen molecules recognized by adult immune cells of inbred Xenopus laevis: partial characterization and implication in metamorphosis. , Izutsu Y ., Dev Growth Differ. December 1, 2002; 44 (6): 477-88.
Xenopus bagpipe-related gene, koza, may play a role in regulation of cell proliferation. , Newman CS., Dev Dyn. December 1, 2002; 225 (4): 571-80.
Two myogenin-related genes are differentially expressed in Xenopus laevis myogenesis and differ in their ability to transactivate muscle structural genes. , Charbonnier F., J Biol Chem. January 11, 2002; 277 (2): 1139-47.
Larval antigen molecules recognized by adult immune cells of inbred Xenopus laevis: two pathways for recognition by adult splenic T cells. , Izutsu Y ., Dev Biol. May 15, 2000; 221 (2): 365-74.
Cardiac myosin heavy chain expression during heart development in Xenopus laevis. , Cox WG., Differentiation. April 1, 1995; 58 (4): 269-80.
Isoform transition of contractile proteins related to muscle remodeling with an axial gradient during metamorphosis in Xenopus laevis. , Nishikawa A., Dev Biol. September 1, 1994; 165 (1): 86-94.
Induction of cardiac muscle differentiation in isolated animal pole explants of Xenopus laevis embryos. , Logan M., Development. July 1, 1993; 118 (3): 865-75.
MHC class I antigens as surface markers of adult erythrocytes during the metamorphosis of Xenopus. , Flajnik MF ., Dev Biol. July 1, 1988; 128 (1): 198-206.
Suppression in Xenopus laevis: thymus inducer, spleen effector cells. , Ruben LN., Immunology. January 1, 1985; 54 (1): 65-70.