Papers associated with primary germ layer (and vim)

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	TBC1D32 variants disrupt retinal ciliogenesis and cause retinitis pigmentosa., Bocquet B., JCI Insight. November 8, 2023; 8 (21):
	FGFR1 variants contributed to families with tooth agenesis., Yao S., Hum Genomics. October 13, 2023; 17 (1): 93.
	The Xenopus animal cap transcriptome: building a mucociliary epithelium., Angerilli A., Nucleic Acids Res. September 28, 2018; 46 (17): 8772-8787.
	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.
	Id genes are essential for early heart formation., Cunningham TJ., Genes Dev. July 1, 2017; 31 (13): 1325-1338.
	Müller glia reactivity follows retinal injury despite the absence of the glial fibrillary acidic protein gene in Xenopus., Martinez-De Luna RI., Dev Biol. June 15, 2017; 426 (2): 219-235.
	A Retinoic Acid-Hedgehog Cascade Coordinates Mesoderm-Inducing Signals and Endoderm Competence during Lung Specification., Rankin SA, Rankin SA., Cell Rep. June 28, 2016; 16 (1): 66-78.
	Grainyhead-like 2 downstream targets act to suppress epithelial-to-mesenchymal transition during neural tube closure., Ray HJ., Development. April 1, 2016; 143 (7): 1192-204.
	Tcf21 regulates the specification and maturation of proepicardial cells., Tandon P., Development. June 1, 2013; 140 (11): 2409-21.
	In silico and in vivo identification of the intermediate filament vimentin that is downregulated downstream of Brachyury during Xenopus embryogenesis., Yamada A., Gene. January 10, 2012; 491 (2): 232-6.
	Role of Tbx2 in defining the territory of the pronephric nephron., Cho GS., Development. February 1, 2011; 138 (3): 465-74.
	Notch signaling, wt1 and foxc2 are key regulators of the podocyte gene regulatory network in Xenopus., White JT., Development. June 1, 2010; 137 (11): 1863-73.
	Muscular dystrophy candidate gene FRG1 is critical for muscle development., Hanel ML., Dev Dyn. June 1, 2009; 238 (6): 1502-12.
	Expression patterns of chick Musashi-1 in the developing nervous system., Wilson JM., Gene Expr Patterns. August 1, 2007; 7 (7): 817-25.
	Cells of cutaneous immunity in Xenopus: studies during larval development and limb regeneration., Mescher AL., Dev Comp Immunol. January 1, 2007; 31 (4): 383-93.
	The EGF-CFC family: novel epidermal growth factor-related proteins in development and cancer., Saloman DS., Endocr Relat Cancer. December 1, 2000; 7 (4): 199-226.
	Fingerprinting taste buds: intermediate filaments and their implication for taste bud formation., Witt M., Philos Trans R Soc Lond B Biol Sci. September 29, 2000; 355 (1401): 1233-7.
	Post-transcriptional regulation of Xwnt-8 expression is required for normal myogenesis during vertebrate embryonic development., Tian Q., Development. August 1, 1999; 126 (15): 3371-80.
	A Xenopus DAZ-like gene encodes an RNA component of germ plasm and is a functional homologue of Drosophila boule., Houston DW., Development. January 1, 1998; 125 (2): 171-80.
	Effects of intermediate filament disruption on the early development of the peripheral nervous system of Xenopus laevis., Lin W., Dev Biol. October 10, 1996; 179 (1): 197-211.
	Disruption of intermediate filament organization leads to structural defects at the intersomite junction in Xenopus myotomal muscle., Cary RB., Development. April 1, 1995; 121 (4): 1041-52.
	Desmin organization during the differentiation of the dorsal myotome in Xenopus laevis., Cary RB., Differentiation. April 1, 1994; 56 (1-2): 31-8.
	Distinct distribution of vimentin and cytokeratin in Xenopus oocytes and early embryos., Torpey NP., J Cell Sci. January 1, 1992; 101 ( Pt 1) 151-60.
	Neuroanatomical and functional analysis of neural tube formation in notochordless Xenopus embryos; laterality of the ventral spinal cord is lost., Clarke JD., Development. June 1, 1991; 112 (2): 499-516.
	Identification of vimentin and novel vimentin-related proteins in Xenopus oocytes and early embryos., Torpey NP., Development. December 1, 1990; 110 (4): 1185-95.
	The appearance of neural and glial cell markers during early development of the nervous system in the amphibian embryo., Messenger NJ., Development. September 1, 1989; 107 (1): 43-54.
	Expression of intermediate filament proteins during development of Xenopus laevis. II. Identification and molecular characterization of desmin., Herrmann H., Development. February 1, 1989; 105 (2): 299-307.
	Expression of intermediate filament proteins during development of Xenopus laevis. I. cDNA clones encoding different forms of vimentin., Herrmann H., Development. February 1, 1989; 105 (2): 279-98.
	A whole-mount immunocytochemical analysis of the expression of the intermediate filament protein vimentin in Xenopus., Dent JA., Development. January 1, 1989; 105 (1): 61-74.
	Immunocytochemical identification of non-neuronal intermediate filament proteins in the developing Xenopus laevis nervous system., Szaro BG., Dev Biol. October 1, 1988; 471 (2): 207-24.
	Developmental expression of a neurofilament-M and two vimentin-like genes in Xenopus laevis., Sharpe CR., Development. June 1, 1988; 103 (2): 269-77.
	The appearance and distribution of intermediate filament proteins during differentiation of the central nervous system, skin and notochord of Xenopus laevis., Godsave SF., J Embryol Exp Morphol. September 1, 1986; 97 201-23.
	Intermediate-size filaments in a germ cell: Expression of cytokeratins in oocytes and eggs of the frog Xenopus., Franz JK., Proc Natl Acad Sci U S A. October 1, 1983; 80 (20): 6254-8.

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