Article ID | Journal | Published Year | Pages | File Type |
---|---|---|---|---|
10913808 | Matrix Biology | 2013 | 9 Pages |
Abstract
Fibrosis underlies the pathogenesis of numerous diseases and leads to severe damage of vital body organs and, frequently, to death. Better understanding of the mechanisms resulting in fibrosis is essential for developing appropriate treatment solutions and is therefore of upmost importance. Recent evidence suggests a significant antifibrotic potential of an integral membrane protein, caveolin-1. While caveolin-1 has been widely studied for its role in the regulation of cell signaling and endocytosis, its possible implication in fibrosis remains largely unclear. In this review we survey involvement of caveolin-1 in various cellular processes and highlight different aspects of its antifibrotic activity. We hypothesize that caveolin-1 conveys a homeostatic function in the process of fibrosis by (a) regulating TGF-β1 and its downstream signaling; (b) regulating critical cellular processes involved in tissue repair, such as migration, adhesion and cellular response to mechanical stress; and (c) antagonizing profibrotic processes, such as proliferation. Finally, we consider this homeostatic function of caveolin-1 as a possible novel approach in treatment of fibroproliferative diseases.
Keywords
CSDTGFβRIITGF-β type I receptorTGFβRIαSMAECMIPFFAKMEFTGF-β1EGFRα-smooth muscle actinMatrix remodelingcaveolin scaffolding domainidiopathic pulmonary fibrosisFibrosisExtracellular matrixmouse embryonic fibroblastsMechanotransductioncaveolin-1focal adhesion kinaseTGF-β type II receptorEpidermal growth factor receptor
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Authors
David Gvaramia, Marjolein E. Blaauboer, Roeland Hanemaaijer, Vincent Everts,