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A genetic mechanism for cecal atresia: the role of the Fgf10 signaling pathway

Intestinal atresia represents a significant surgically correctable cause of intestinal obstruction in neonates. Intestinal development proceeds as a tube-like structure with differentiation along its axis. As the intestine differentiates, the cecum develops at the transition from small to large inte...

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Published in:The Journal of surgical research 2004-08, Vol.120 (2), p.201-209
Main Authors: Fairbanks, T.J., Kanard, R.C., De Langhe, S.P., Sala, F.G., Del Moral, P.M., Warburton, D., Anderson, K.D., Bellusci, S., Burns, R.C.
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container_issue 2
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container_title The Journal of surgical research
container_volume 120
creator Fairbanks, T.J.
Kanard, R.C.
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Warburton, D.
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Bellusci, S.
Burns, R.C.
description Intestinal atresia represents a significant surgically correctable cause of intestinal obstruction in neonates. Intestinal development proceeds as a tube-like structure with differentiation along its axis. As the intestine differentiates, the cecum develops at the transition from small to large intestine. Fgf10 is known to serve a key role in budding morphogenesis; however, little is known about its role in the development of this transitional structure. Here we evaluate the effect of Fgf10/ Fgfr2b invalidation on the developing cecum. Wild-type C57Bl/6, Fgf10 −/−, and Fgfr2b −/− embryos harvested from timed pregnant mothers were analyzed for cecal phenotype, Fgf10 expression, and differentiation of smooth muscle actin. Wt cecal development is first evident at E11.5. FGF10 is discreetly expressed in the area of the developing cecum at early stages of development. One hundred percent of Fgf10 −/− and Fgfr2b −/− mutant embryos demonstrate cecal atresia with absence of epithelial and muscular layers. The development of neighboring anatomical structures such as the ileocecal valve is not affected by Fgf10/ Fgfr2b invalidation. FGF10 expression is localized to the cecum early in the normal development of the cecum. Fgf10 −/− and Fgfr2b −/− mutant embryos demonstrate cecal atresia with complete penetrance. Epithelial and muscular layers of the cecum are not present in the atretic cecum. The Fgf10 −/− and Fgfr2b −/− mutants represent a genetically reproducible animal model of autosomal recessive intestinal atresia.
doi_str_mv 10.1016/j.jss.2003.12.017
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Intestinal development proceeds as a tube-like structure with differentiation along its axis. As the intestine differentiates, the cecum develops at the transition from small to large intestine. Fgf10 is known to serve a key role in budding morphogenesis; however, little is known about its role in the development of this transitional structure. Here we evaluate the effect of Fgf10/ Fgfr2b invalidation on the developing cecum. Wild-type C57Bl/6, Fgf10 −/−, and Fgfr2b −/− embryos harvested from timed pregnant mothers were analyzed for cecal phenotype, Fgf10 expression, and differentiation of smooth muscle actin. Wt cecal development is first evident at E11.5. FGF10 is discreetly expressed in the area of the developing cecum at early stages of development. One hundred percent of Fgf10 −/− and Fgfr2b −/− mutant embryos demonstrate cecal atresia with absence of epithelial and muscular layers. 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Intestinal development proceeds as a tube-like structure with differentiation along its axis. As the intestine differentiates, the cecum develops at the transition from small to large intestine. Fgf10 is known to serve a key role in budding morphogenesis; however, little is known about its role in the development of this transitional structure. Here we evaluate the effect of Fgf10/ Fgfr2b invalidation on the developing cecum. Wild-type C57Bl/6, Fgf10 −/−, and Fgfr2b −/− embryos harvested from timed pregnant mothers were analyzed for cecal phenotype, Fgf10 expression, and differentiation of smooth muscle actin. Wt cecal development is first evident at E11.5. FGF10 is discreetly expressed in the area of the developing cecum at early stages of development. One hundred percent of Fgf10 −/− and Fgfr2b −/− mutant embryos demonstrate cecal atresia with absence of epithelial and muscular layers. The development of neighboring anatomical structures such as the ileocecal valve is not affected by Fgf10/ Fgfr2b invalidation. FGF10 expression is localized to the cecum early in the normal development of the cecum. Fgf10 −/− and Fgfr2b −/− mutant embryos demonstrate cecal atresia with complete penetrance. Epithelial and muscular layers of the cecum are not present in the atretic cecum. 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Intestinal development proceeds as a tube-like structure with differentiation along its axis. As the intestine differentiates, the cecum develops at the transition from small to large intestine. Fgf10 is known to serve a key role in budding morphogenesis; however, little is known about its role in the development of this transitional structure. Here we evaluate the effect of Fgf10/ Fgfr2b invalidation on the developing cecum. Wild-type C57Bl/6, Fgf10 −/−, and Fgfr2b −/− embryos harvested from timed pregnant mothers were analyzed for cecal phenotype, Fgf10 expression, and differentiation of smooth muscle actin. Wt cecal development is first evident at E11.5. FGF10 is discreetly expressed in the area of the developing cecum at early stages of development. One hundred percent of Fgf10 −/− and Fgfr2b −/− mutant embryos demonstrate cecal atresia with absence of epithelial and muscular layers. The development of neighboring anatomical structures such as the ileocecal valve is not affected by Fgf10/ Fgfr2b invalidation. FGF10 expression is localized to the cecum early in the normal development of the cecum. Fgf10 −/− and Fgfr2b −/− mutant embryos demonstrate cecal atresia with complete penetrance. Epithelial and muscular layers of the cecum are not present in the atretic cecum. The Fgf10 −/− and Fgfr2b −/− mutants represent a genetically reproducible animal model of autosomal recessive intestinal atresia.</abstract><cop>New York, NY</cop><pub>Elsevier Inc</pub><pmid>15234214</pmid><doi>10.1016/j.jss.2003.12.017</doi><tpages>9</tpages></addata></record>
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subjects Animals
Biological and medical sciences
cecal atresia
Cecum - metabolism
congenital intestinal atresia
Embryonic and Fetal Development
Fgf10
Fgfr2b
Fibroblast Growth Factor 10
fibroblast growth factor receptor 2IIIb
Fibroblast Growth Factors - deficiency
Fibroblast Growth Factors - genetics
Fibroblast Growth Factors - metabolism
gastrointestinal tract development
General aspects
Intestinal Atresia - etiology
Intestinal Atresia - metabolism
Intestinal Atresia - pathology
Intestinal Atresia - physiopathology
Intestinal Mucosa
keratinocyte growth factor 2
KGF-2
Medical sciences
Mice
Mice, Knockout
Muscle, Smooth - embryology
Muscle, Smooth - pathology
Mutation
Penetrance
Peristalsis
Receptor, Fibroblast Growth Factor, Type 2
Receptors, Fibroblast Growth Factor - deficiency
Receptors, Fibroblast Growth Factor - genetics
Receptors, Fibroblast Growth Factor - metabolism
Signal Transduction
smooth muscle actin
title A genetic mechanism for cecal atresia: the role of the Fgf10 signaling pathway
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