Papers associated with skeletal element (and fn1)

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	TBC1D32 variants disrupt retinal ciliogenesis and cause retinitis pigmentosa., Bocquet B., JCI Insight. November 8, 2023; 8 (21):
	16p12.1 Deletion Orthologs are Expressed in Motile Neural Crest Cells and are Important for Regulating Craniofacial Development in Xenopus laevis., Lasser M., Front Genet. January 1, 2022; 13 833083.
	The histone methyltransferase KMT2D, mutated in Kabuki syndrome patients, is required for neural crest cell formation and migration., Schwenty-Lara J., Hum Mol Genet. January 15, 2020; 29 (2): 305-319.
	Endosome-Mediated Epithelial Remodeling Downstream of Hedgehog-Gli Is Required for Tracheoesophageal Separation., Nasr T., Dev Cell. December 16, 2019; 51 (6): 665-674.e6.
	Epithelial-Mesenchymal Transition Promotes the Differentiation Potential of Xenopus tropicalis Immature Sertoli Cells., Nguyen TMX., Stem Cells Int. May 5, 2019; 2019 8387478.
	Wolf-Hirschhorn Syndrome-Associated Genes Are Enriched in Motile Neural Crest Cells and Affect Craniofacial Development in Xenopus laevis., Mills A., Front Physiol. January 1, 2019; 10 431.
	PFKFB4 control of AKT signaling is essential for premigratory and migratory neural crest formation., Figueiredo AL., Development. November 15, 2017; 144 (22): 4183-4194.
	Vestigial-like 3 is a novel Ets1 interacting partner and regulates trigeminal nerve formation and cranial neural crest migration., Simon E., Biol Open. October 15, 2017; 6 (10): 1528-1540.
	Xenopus as a model for studies in mechanical stress and cell division., Stooke-Vaughan GA., Genesis. January 1, 2017; 55 (1-2):
	Tril targets Smad7 for degradation to allow hematopoietic specification in Xenopus embryos., Green YS., Development. November 1, 2016; 143 (21): 4016-4026.
	Bioelectric signalling via potassium channels: a mechanism for craniofacial dysmorphogenesis in KCNJ2-associated Andersen-Tawil Syndrome., Adams DS., J Physiol. June 15, 2016; 594 (12): 3245-70.
	In vivo confinement promotes collective migration of neural crest cells., Szabó A., J Cell Biol. June 6, 2016; 213 (5): 543-55.
	Musculocontractural Ehlers-Danlos syndrome and neurocristopathies: dermatan sulfate is required for Xenopus neural crest cells to migrate and adhere to fibronectin., Gouignard N., Dis Model Mech. June 1, 2016; 9 (6): 607-20.
	E-cadherin is required for cranial neural crest migration in Xenopus laevis., Huang C., Dev Biol. March 15, 2016; 411 (2): 159-171.
	The Lhx9-integrin pathway is essential for positioning of the proepicardial organ., Tandon P., Development. March 1, 2016; 143 (5): 831-40.
	Hmga2 is required for neural crest cell specification in Xenopus laevis., Macrì S., Dev Biol. March 1, 2016; 411 (1): 25-37.
	Snail2/Slug cooperates with Polycomb repressive complex 2 (PRC2) to regulate neural crest development., Tien CL., Development. February 15, 2015; 142 (4): 722-31.
	A Molecular atlas of Xenopus respiratory system development., Rankin SA, Rankin SA., Dev Dyn. January 1, 2015; 244 (1): 69-85.
	Proteomic analysis of fibroblastema formation in regenerating hind limbs of Xenopus laevis froglets and comparison to axolotl., Rao N., BMC Dev Biol. July 25, 2014; 14 32.
	Ectopic blastema induction by nerve deviation and skin wounding: a new regeneration model in Xenopus laevis., Mitogawa K., Regeneration (Oxf). May 28, 2014; 1 (2): 26-36.
	Dissection of Xenopus laevis neural crest for in vitro explant culture or in vivo transplantation., Milet C., J Vis Exp. March 11, 2014; (85):
	Biomechanics and the thermotolerance of development., von Dassow M., PLoS One. January 1, 2014; 9 (4): e95670.
	Chordin forms a self-organizing morphogen gradient in the extracellular space between ectoderm and mesoderm in the Xenopus embryo., Plouhinec JL., Proc Natl Acad Sci U S A. December 17, 2013; 110 (51): 20372-9.
	A conserved Oct4/POUV-dependent network links adhesion and migration to progenitor maintenance., Livigni A., Curr Biol. November 18, 2013; 23 (22): 2233-2244.
	Ric-8A, a guanine nucleotide exchange factor for heterotrimeric G proteins, is critical for cranial neural crest cell migration., Fuentealba J., Dev Biol. June 15, 2013; 378 (2): 74-82.
	Pax3 and Zic1 drive induction and differentiation of multipotent, migratory, and functional neural crest in Xenopus embryos., Milet C., Proc Natl Acad Sci U S A. April 2, 2013; 110 (14): 5528-33.
	Sizzled-tolloid interactions maintain foregut progenitors by regulating fibronectin-dependent BMP signaling., Kenny AP., Dev Cell. August 14, 2012; 23 (2): 292-304.
	Histology of plastic embedded amphibian embryos and larvae., Kurth T., Genesis. March 1, 2012; 50 (3): 235-50.
	PAPC and the Wnt5a/Ror2 pathway control the invagination of the otic placode in Xenopus., Jung B., BMC Dev Biol. June 10, 2011; 11 36.
	Activity of the RhoU/Wrch1 GTPase is critical for cranial neural crest cell migration., Fort P., Dev Biol. February 15, 2011; 350 (2): 451-63.
	Rapid differential transport of Nodal and Lefty on sulfated proteoglycan-rich extracellular matrix regulates left-right asymmetry in Xenopus., Marjoram L., Development. February 1, 2011; 138 (3): 475-85.
	A protocadherin-cadherin-FLRT3 complex controls cell adhesion and morphogenesis., Chen X., PLoS One. December 22, 2009; 4 (12): e8411.
	Proteomic analysis of blastema formation in regenerating axolotl limbs., Rao N., BMC Biol. November 30, 2009; 7 83.
	Myosin-X is required for cranial neural crest cell migration in Xenopus laevis., Hwang YS., Dev Dyn. October 1, 2009; 238 (10): 2522-9.
	In vivo analyzes of dystroglycan function during somitogenesis in Xenopus laevis., Hidalgo M., Dev Dyn. June 1, 2009; 238 (6): 1332-45.
	The Wnt antagonists Frzb-1 and Crescent locally regulate basement membrane dissolution in the developing primary mouth., Dickinson AJ., Development. April 1, 2009; 136 (7): 1071-81.
	Directional migration of neural crest cells in vivo is regulated by Syndecan-4/Rac1 and non-canonical Wnt signaling/RhoA., Matthews HK., Development. May 1, 2008; 135 (10): 1771-80.
	Phylogenetic analysis of the tenascin gene family: evidence of origin early in the chordate lineage., Tucker RP., BMC Evol Biol. August 7, 2006; 6 60.
	Tes regulates neural crest migration and axial elongation in Xenopus., Dingwell KS., Dev Biol. May 1, 2006; 293 (1): 252-67.
	Planar cell polarity genes regulate polarized extracellular matrix deposition during frog gastrulation., Goto T., Curr Biol. April 26, 2005; 15 (8): 787-93.
	Xenopus Cyr61 regulates gastrulation movements and modulates Wnt signalling., Latinkic BV., Development. June 1, 2003; 130 (11): 2429-41.
	Xenopus ADAM 13 is a metalloprotease required for cranial neural crest-cell migration., Alfandari D, Alfandari D., Curr Biol. June 26, 2001; 11 (12): 918-30.
	Heterotopic expression of the Xl-Fli transcription factor during Xenopus embryogenesis: modification of cell adhesion and engagement in the apoptotic pathway., Goltzené F., Exp Cell Res. November 1, 2000; 260 (2): 233-47.
	Xoom is required for epibolic movement of animal ectodermal cells in Xenopus laevis gastrulation., Hasegawa K., Dev Growth Differ. August 1, 2000; 42 (4): 337-46.
	Xenopus nodal-related signaling is essential for mesendodermal patterning during early embryogenesis., Osada SI., Development. June 1, 1999; 126 (14): 3229-40.
	Analysis of C-cadherin regulation during tissue morphogenesis with an activating antibody., Zhong Y., J Cell Biol. January 25, 1999; 144 (2): 351-9.
	Expression of N-cadherin, N-CAM, fibronectin and tenascin is stimulated by TGF-beta1, beta2, beta3 and beta5 during the formation of precartilage condensations., Chimal-Monroy J., Int J Dev Biol. January 1, 1999; 43 (1): 59-67.
	The expression pattern of thyroid hormone response genes in remodeling tadpole tissues defines distinct growth and resorption gene expression programs., Berry DL., Dev Biol. November 1, 1998; 203 (1): 24-35.
	The expression pattern of thyroid hormone response genes in the tadpole tail identifies multiple resorption programs., Berry DL., Dev Biol. November 1, 1998; 203 (1): 12-23.
	Evidence for beta 1-integrins on both apical and basal surfaces of Xenopus retinal pigment epithelium., Chen W., Exp Eye Res. January 1, 1997; 64 (1): 73-84.

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