Papers associated with whole organism (and pcna)

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	Regeneration from three cellular sources and ectopic mini-retina formation upon neurotoxic retinal degeneration in Xenopus., Parain K., Glia. April 1, 2024; 72 (4): 759-776.
	Age-associated DNA methylation changes in Xenopus frogs., Morselli M., Epigenetics. December 1, 2023; 18 (1): 2201517.
	β-Catenin and SOX2 Interaction Regulate Visual Experience-Dependent Cell Homeostasis in the Developing Xenopus Thalamus., Gao J., Int J Mol Sci. September 2, 2023; 24 (17):
	The cellular basis of cartilage growth and shape change in larval and metamorphosing Xenopus frogs., Rose CS., PLoS One. January 1, 2023; 18 (1): e0277110.
	Human SLFN5 and its Xenopus Laevis ortholog regulate entry into mitosis and oocyte meiotic resumption., Vit G., Cell Death Discov. December 8, 2022; 8 (1): 484.
	Cellular and molecular profiles of larval and adult Xenopus corneal epithelia resolved at the single-cell level., Sonam S., Dev Biol. November 1, 2022; 491 13-30.
	CRISPR/Cas9-Mediated Models of Retinitis Pigmentosa Reveal Differential Proliferative Response of Müller Cells between Xenopus laevis and Xenopus tropicalis., Parain K., Cells. February 25, 2022; 11 (5):
	Evi5 is required for Xenopus limb and tail regeneration., Yang L., Front Cell Dev Biol. January 1, 2022; 10 1027666.
	Deep learning is widely applicable to phenotyping embryonic development and disease., Naert T., Development. November 1, 2021; 148 (21):
	Foxm1 regulates neural progenitor fate during spinal cord regeneration., Pelzer D., EMBO Rep. September 6, 2021; 22 (9): e50932.
	Otic Neurogenesis in Xenopus laevis: Proliferation, Differentiation, and the Role of Eya1., Almasoudi SH., Front Neuroanat. January 1, 2021; 15 722374.
	The neurodevelopmental disorder risk gene DYRK1A is required for ciliogenesis and control of brain size in Xenopus embryos., Willsey HR., Development. June 22, 2020; 147 (21):
	Xenopus embryos show a compensatory response following perturbation of the Notch signaling pathway., Solini GE., Dev Biol. April 15, 2020; 460 (2): 99-107.
	RBL1 (p107) functions as tumor suppressor in glioblastoma and small-cell pancreatic neuroendocrine carcinoma in Xenopus tropicalis., Naert T., Oncogene. March 1, 2020; 39 (13): 2692-2706.
	APE1 senses DNA single-strand breaks for repair and signaling., Lin Y., Nucleic Acids Res. February 28, 2020; 48 (4): 1925-1940.
	SLC20A1 Is Involved in Urinary Tract and Urorectal Development., Rieke JM., Front Cell Dev Biol. January 1, 2020; 8 567.
	The Stemness Gene Mex3A Is a Key Regulator of Neuroblast Proliferation During Neurogenesis., Naef V., Front Cell Dev Biol. January 1, 2020; 8 549533.
	Conservation and divergence of protein pathways in the vertebrate heart., Federspiel JD., PLoS Biol. September 6, 2019; 17 (9): e3000437.
	Katanin-like protein Katnal2 is required for ciliogenesis and brain development in Xenopus embryos., Willsey HR., Dev Biol. October 15, 2018; 442 (2): 276-287.
	Melanocortin Receptor 4 Signaling Regulates Vertebrate Limb Regeneration., Zhang M., Dev Cell. August 20, 2018; 46 (4): 397-409.e5.
	The age-regulated zinc finger factor ZNF367 is a new modulator of neuroblast proliferation during embryonic neurogenesis., Naef V., Sci Rep. August 7, 2018; 8 (1): 11836.
	Cellular composition and organization of the spinal cord central canal during metamorphosis of the frog Xenopus laevis., Edwards-Faret G., J Comp Neurol. July 1, 2018; 526 (10): 1712-1732.
	Musashi and Plasticity of Xenopus and Axolotl Spinal Cord Ependymal Cells., Chernoff EAG., Front Cell Neurosci. January 1, 2018; 12 45.
	Development of Xenopus laevis bipotential gonads into testis or ovary is driven by sex-specific cell-cell interactions, proliferation rate, cell migration and deposition of extracellular matrix., Piprek RP., Dev Biol. December 15, 2017; 432 (2): 298-310.
	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.
	A balance of Mad and Myc expression dictates larval cell apoptosis and adult stem cell development during Xenopus intestinal metamorphosis., Okada M., Cell Death Dis. May 11, 2017; 8 (5): e2787.
	Thyroid Hormone-Induced Activation of Notch Signaling is Required for Adult Intestinal Stem Cell Development During Xenopus Laevis Metamorphosis., Hasebe T., Stem Cells. April 1, 2017; 35 (4): 1028-1039.
	Pattern of Neurogenesis and Identification of Neuronal Progenitor Subtypes during Pallial Development in Xenopus laevis., Moreno N., Front Neuroanat. March 27, 2017; 11 24.
	5-hydroxymethylcytosine marks postmitotic neural cells in the adult and developing vertebrate central nervous system., Diotel N., J Comp Neurol. February 15, 2017; 525 (3): 478-497.
	CRISPR/Cas9 mediated knockout of rb1 and rbl1 leads to rapid and penetrant retinoblastoma development in Xenopus tropicalis., Naert T., Sci Rep. October 14, 2016; 6 35264.
	Ptbp1 and Exosc9 knockdowns trigger skin stability defects through different pathways., Noiret M., Dev Biol. January 15, 2016; 409 (2): 489-501.
	Understanding How the Subcommissural Organ and Other Periventricular Secretory Structures Contribute via the Cerebrospinal Fluid to Neurogenesis., Guerra MM., Front Cell Neurosci. September 23, 2015; 9 480.
	YAP controls retinal stem cell DNA replication timing and genomic stability., Cabochette P., Elife. September 22, 2015; 4 e08488.
	The role of folate metabolism in orofacial development and clefting., Wahl SE., Dev Biol. September 1, 2015; 405 (1): 108-22.
	TALEN-mediated apc mutation in Xenopus tropicalis phenocopies familial adenomatous polyposis., Van Nieuwenhuysen T., Oncoscience. May 19, 2015; 2 (5): 555-66.
	A posttranscriptional mechanism that controls Ptbp1 abundance in the Xenopus epidermis., Méreau A., Mol Cell Biol. February 1, 2015; 35 (4): 758-68.
	Methylmercury exposure during early Xenopus laevis development affects cell proliferation and death but not neural progenitor specification., Huyck RW., Neurotoxicol Teratol. January 1, 2015; 47 102-13.
	A requirement for hedgehog signaling in thyroid hormone-induced postembryonic intestinal remodeling., Wen L., Cell Biosci. January 1, 2015; 5 13.
	Isoquercitrin suppresses colon cancer cell growth in vitro by targeting the Wnt/β-catenin signaling pathway., Amado NG., J Biol Chem. December 19, 2014; 289 (51): 35456-67.
	In vivo analysis of formation and endocytosis of the Wnt/β-catenin signaling complex in zebrafish embryos., Hagemann AI., J Cell Sci. September 15, 2014; 127 (Pt 18): 3970-82.
	Transit amplification in the amniote cerebellum evolved via a heterochronic shift in NeuroD1 expression., Butts T., Development. July 1, 2014; 141 (14): 2791-5.
	Cyp19a1 (aromatase) expression in the Xenopus brain at different developmental stages., Coumailleau P., J Neuroendocrinol. April 1, 2014; .
	Bioelectric signaling regulates size in zebrafish fins., Perathoner S., PLoS Genet. January 1, 2014; 10 (1): e1004080.
	Thyroid hormone-regulated Wnt5a/Ror2 signaling is essential for dedifferentiation of larval epithelial cells into adult stem cells in the Xenopus laevis intestine., Ishizuya-Oka A., PLoS One. January 1, 2014; 9 (9): e107611.
	Maturin is a novel protein required for differentiation during primary neurogenesis., Martinez-De Luna RI., Dev Biol. December 1, 2013; 384 (1): 26-40.
	PrimPol bypasses UV photoproducts during eukaryotic chromosomal DNA replication., Bianchi J., Mol Cell. November 21, 2013; 52 (4): 566-73.
	M-cadherin-mediated intercellular interactions activate satellite cell division., Marti M., J Cell Sci. November 15, 2013; 126 (Pt 22): 5116-31.
	ERF and ETV3L are retinoic acid-inducible repressors required for primary neurogenesis., Janesick A., Development. August 1, 2013; 140 (15): 3095-106.
	The neurogenic factor NeuroD1 is expressed in post-mitotic cells during juvenile and adult Xenopus neurogenesis and not in progenitor or radial glial cells., D'Amico LA., PLoS One. June 11, 2013; 8 (6): e66487.
	sfrp1 promotes cardiomyocyte differentiation in Xenopus via negative-feedback regulation of Wnt signalling., Gibb N., Development. April 1, 2013; 140 (7): 1537-49.

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