Cell culture system to efficiently test candidate genes and molecular pathways implicated in congenital diaphragmatic hernias
Eric L. BogenschutziD, Elizabeth M. SeftoniD, Gabrielle KardoniD
Abstract
The mammalian muscularized diaphragm is essential for respiration and defects in the developing diaphragm cause a common and frequently lethal birth defect, congenital diaphragmatic hernia (CDH). Human genetic studies have implicated more than 150 genes and multiple molecular pathways in CDH, but few of these have been validated because of the expense and time to generate mouse mutants. The pleuroperitoneal folds (PPFs) are transient embryonic structures in diaphragm development and a critical cellular source of CDH. We have developed a system to culture PPF fibroblasts from E12.5 mouse embryos and show that these fibroblasts, in contrast to the commonly used NIH 3T3 fibroblasts, maintain expression of key genes in normal diaphragm development. Using pharmacological and genetic manipulations that result in CDH in vivo, we also demonstrate that differences in proliferation provide a rapid means of distinguishing healthy and impaired PPF fibroblasts. Thus, the PPF fibroblast cell culture system is an efficient tool for testing the functional significance of CDH candidate genes and molecular pathways and will be an important resource for elucidating the complex etiology of CDH. SUMMARY STATEMENTMultiple candidate genes and molecular pathways have been identified as potentially contributing to the etiology of congenital diaphragmatic hernias. We describe a cell culture system to efficiently functionally test these candidates.
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