The polycystin complex mediates Wnt/Ca2+ signalling

被引:0
|
作者
Seokho Kim
Hongguang Nie
Vasyl Nesin
Uyen Tran
Patricia Outeda
Chang-Xi Bai
Jacob Keeling
Dipak Maskey
Terry Watnick
Oliver Wessely
Leonidas Tsiokas
机构
[1] University of Oklahoma Health Sciences Center,Department of Cell Biology
[2] Institute of Metabolic Disease Research and Drug Development,Department of Cellular and Molecular Medicine
[3] China Medical University,Division of Nephrology
[4] Cleveland Clinic,Department of Advanced Research on Mongolian Medicine
[5] Baltimore PKD Research and Clinical Core Center,undefined
[6] University of Maryland School of Medicine,undefined
[7] Research Institute for Mongolian Medicine,undefined
[8] Inner Mongolia Medical University,undefined
来源
Nature Cell Biology | 2016年 / 18卷
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摘要
WNT ligands induce Ca2+ signalling on target cells. PKD1 (polycystin 1) is considered an orphan, atypical G-protein-coupled receptor complexed with TRPP2 (polycystin 2 or PKD2), a Ca2+-permeable ion channel. Inactivating mutations in their genes cause autosomal dominant polycystic kidney disease (ADPKD), one of the most common genetic diseases. Here, we show that WNTs bind to the extracellular domain of PKD1 and induce whole-cell currents and Ca2+ influx dependent on TRPP2. Pathogenic PKD1 or PKD2 mutations that abrogate complex formation, compromise cell surface expression of PKD1, or reduce TRPP2 channel activity suppress activation by WNTs. Pkd2−/− fibroblasts lack WNT-induced Ca2+ currents and are unable to polarize during directed cell migration. In Xenopus embryos, pkd1, Dishevelled 2 (dvl2) and wnt9a act within the same pathway to preserve normal tubulogenesis. These data define PKD1 as a WNT (co)receptor and implicate defective WNT/Ca2+ signalling as one of the causes of ADPKD.
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页码:752 / 764
页数:12
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