Literature DB >> 16943304

Polycystin-2 immunolocalization and function in zebrafish.

Tomoko Obara1, Steven Mangos, Yan Liu, Jinhua Zhao, Stephanie Wiessner, Albrecht G Kramer-Zucker, Felix Olale, Alexander F Schier, Iain A Drummond.   

Abstract

Polycystin-2 functions as a cation-permeable transient receptor potential ion channel in kidney epithelial cells and when mutated results in human autosomal dominant polycystic kidney disease. For further exploration of the in vivo functions of Polycystin-2, this study examined its expression and function during zebrafish embryogenesis. pkd2 mRNA is ubiquitously expressed, and its presence in the larval kidney could be confirmed by reverse transcription-PCR on isolated pronephroi. Immunostaining with anti-zebrafish Polycystin-2 antibody revealed protein expression in motile kidney epithelial cell cilia and intracellular cell membranes. Intracellular localization was segment specific; in the proximal nephron segment, Polycystin-2 was localized to basolateral cell membranes, whereas in the caudal pronephric segment, Polycystin-2 was concentrated in subapical cytoplasmic vesicles. Polycystin-2 also was expressed in muscle cells and in a variety of sensory cells that are associated with mechanotransduction, including cells of the ear, the lateral line organ, and the olfactory placodes. Disruption of Polycystin-2 mRNA expression resulted in pronephric kidney cysts, body axis curvature, organ laterality defects, and hydrocephalus-defects that could be rescued by expression of a human PKD2 mRNA. In-frame deletions in the first extracellular loop and C-terminal phosphofurin acidic cluster sorting protein-1 (PACS-1) binding sites in the cytoplasmic tail caused Polycystin-2 mislocalization to the apical cell surface. Unlike zebrafish intraflagellar transport protein (IFT) mutants, cyst formation was not associated with cilia defects and instead correlated with reduced kidney fluid output, expansion of caudal duct apical cell membranes, and occlusion of the caudal pronephric nephron segment.

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Year:  2006        PMID: 16943304      PMCID: PMC3698611          DOI: 10.1681/ASN.2006040412

Source DB:  PubMed          Journal:  J Am Soc Nephrol        ISSN: 1046-6673            Impact factor:   10.121


  49 in total

1.  Cellular and subcellular distribution of polycystin-2, the protein product of the PKD2 gene.

Authors:  Lukas Foggensteiner; A Paul Bevan; Ruth Thomas; Nicholas Coleman; Catherine Boulter; John Bradley; Oxana Ibraghimov-Beskrovnaya; Katherine Klinger; Richard Sandford
Journal:  J Am Soc Nephrol       Date:  2000-05       Impact factor: 10.121

2.  Transport function of the naturally occurring pathogenic polycystin-2 mutant, R742X.

Authors:  X Z Chen; Y Segal; N Basora; L Guo; J B Peng; H Babakhanlou; P M Vassilev; E M Brown; M A Hediger; J Zhou
Journal:  Biochem Biophys Res Commun       Date:  2001-04-20       Impact factor: 3.575

3.  Cardiac defects and renal failure in mice with targeted mutations in Pkd2.

Authors:  G Wu; G S Markowitz; L Li; V D D'Agati; S M Factor; L Geng; S Tibara; J Tuchman; Y Cai; J H Park; J van Adelsberg; H Hou; R Kucherlapati; W Edelmann; S Somlo
Journal:  Nat Genet       Date:  2000-01       Impact factor: 38.330

Review 4.  Molecular genetics and pathogenesis of autosomal dominant polycystic kidney disease.

Authors:  M A Arnaout
Journal:  Annu Rev Med       Date:  2001       Impact factor: 13.739

5.  The Caenorhabditis elegans autosomal dominant polycystic kidney disease gene homologs lov-1 and pkd-2 act in the same pathway.

Authors:  M M Barr; J DeModena; D Braun; C Q Nguyen; D H Hall; P W Sternberg
Journal:  Curr Biol       Date:  2001-09-04       Impact factor: 10.834

6.  Polycystin-2, the protein mutated in autosomal dominant polycystic kidney disease (ADPKD), is a Ca2+-permeable nonselective cation channel.

Authors:  S González-Perrett; K Kim; C Ibarra; A E Damiano; E Zotta; M Batelli; P C Harris; I L Reisin; M A Arnaout; H F Cantiello
Journal:  Proc Natl Acad Sci U S A       Date:  2001-01-30       Impact factor: 11.205

7.  Vascular expression of polycystin-2.

Authors:  Vicente E Torres; Yiquiang Cai; X I Chen; Guanquing Q Wu; Lin Geng; Kathleen A Cleghorn; Christopher M Johnson; Stefan Somlo
Journal:  J Am Soc Nephrol       Date:  2001-01       Impact factor: 10.121

8.  Co-assembly of polycystin-1 and -2 produces unique cation-permeable currents.

Authors:  K Hanaoka; F Qian; A Boletta; A K Bhunia; K Piontek; L Tsiokas; V P Sukhatme; W B Guggino; G G Germino
Journal:  Nature       Date:  2000 Dec 21-28       Impact factor: 49.962

9.  In vivo interaction of the adapter protein CD2-associated protein with the type 2 polycystic kidney disease protein, polycystin-2.

Authors:  S Lehtonen; A Ora; V M Olkkonen; L Geng; M Zerial; S Somlo; E Lehtonen
Journal:  J Biol Chem       Date:  2000-10-20       Impact factor: 5.157

10.  A genetic screen in zebrafish identifies cilia genes as a principal cause of cystic kidney.

Authors:  Zhaoxia Sun; Adam Amsterdam; Gregory J Pazour; Douglas G Cole; Mark S Miller; Nancy Hopkins
Journal:  Development       Date:  2004-07-21       Impact factor: 6.868

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  56 in total

1.  Inhibition of the P2X7 receptor reduces cystogenesis in PKD.

Authors:  Ming-Yang Chang; Jenn-Kan Lu; Ya-Chung Tian; Yung-Chang Chen; Cheng-Chieh Hung; Yi-Hui Huang; Yau-Hung Chen; Mai-Szu Wu; Chih-Wei Yang; Yi-Chuan Cheng
Journal:  J Am Soc Nephrol       Date:  2011-06-02       Impact factor: 10.121

2.  Zebrafish assays of ciliopathies.

Authors:  Norann A Zaghloul; Nicholas Katsanis
Journal:  Methods Cell Biol       Date:  2011       Impact factor: 1.441

3.  The retinitis pigmentosa protein RP2 interacts with polycystin 2 and regulates cilia-mediated vertebrate development.

Authors:  Toby Hurd; Weibin Zhou; Paul Jenkins; Chia-Jen Liu; Anand Swaroop; Hemant Khanna; Jeffrey Martens; Friedhelm Hildebrandt; Ben Margolis
Journal:  Hum Mol Genet       Date:  2010-08-20       Impact factor: 6.150

4.  A new model system swims into focus: using the zebrafish to visualize intestinal metabolism in vivo.

Authors:  Juliana D Carten; Steven A Farber
Journal:  Clin Lipidol       Date:  2009-08-01

5.  The ADPKD genes pkd1a/b and pkd2 regulate extracellular matrix formation.

Authors:  Steve Mangos; Pui-ying Lam; Angela Zhao; Yan Liu; Sudha Mudumana; Aleksandr Vasilyev; Aiping Liu; Iain A Drummond
Journal:  Dis Model Mech       Date:  2010-03-24       Impact factor: 5.758

Review 6.  Fish and frogs: models for vertebrate cilia signaling.

Authors:  Oliver Wessely; Tomoko Obara
Journal:  Front Biosci       Date:  2008-01-01

Review 7.  Function and regulation of TRPP2 at the plasma membrane.

Authors:  Leonidas Tsiokas
Journal:  Am J Physiol Renal Physiol       Date:  2009-02-25

Review 8.  The luminal connection: from animal development to lumopathies.

Authors:  Robert M Kao
Journal:  Organogenesis       Date:  2013-04-01       Impact factor: 2.500

9.  A modifier locus on chromosome 5 contributes to L1 cell adhesion molecule X-linked hydrocephalus in mice.

Authors:  Alexis Tapanes-Castillo; Eli J Weaver; Robin P Smith; Yoshimasa Kamei; Tamara Caspary; Kara L Hamilton-Nelson; Susan H Slifer; Eden R Martin; John L Bixby; Vance P Lemmon
Journal:  Neurogenetics       Date:  2009-06-30       Impact factor: 2.660

10.  Pkd1 regulates lymphatic vascular morphogenesis during development.

Authors:  Baptiste Coxam; Amélie Sabine; Neil I Bower; Kelly A Smith; Cathy Pichol-Thievend; Renae Skoczylas; Jonathan W Astin; Emmanuelle Frampton; Muriel Jaquet; Philip S Crosier; Robert G Parton; Natasha L Harvey; Tatiana V Petrova; Stefan Schulte-Merker; Mathias Francois; Benjamin M Hogan
Journal:  Cell Rep       Date:  2014-04-24       Impact factor: 9.423

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