Literature DB >> 20473396

CFTR chloride channel in the apical compartments: spatiotemporal coupling to its interacting partners.

Chunying Li1, Anjaparavanda P Naren.   

Abstract

The cystic fibrosis transmembrane conductance regulator (CFTR) is a cAMP-regulated chloride channel located primarily at the apical or luminal surfaces of epithelial cells in the airway, intestine, pancreas, kidney, sweat gland, as well as male reproductive tract, where it plays a crucial role in transepithelial fluid homeostasis. CFTR dysfunction can be detrimental and may result in life-threatening disorders. CFTR hypofunctioning because of genetic defects leads to cystic fibrosis, the most common lethal genetic disease in Caucasians, whereas CFTR hyperfunctioning resulting from various infections evokes secretory diarrhea, the leading cause of mortality in early childhood. Therefore, maintaining a dynamic balance between CFTR up-regulating processes and CFTR down-regulating processes is essential for maintaining fluid and body homeostasis. Accumulating evidence suggests that protein-protein interactions play a critical role in the fine-tuned regulation of CFTR function. A growing number of proteins have been reported to interact directly or indirectly with CFTR chloride channel, suggesting that CFTR might be coupled spatially and temporally to a wide variety of interacting partners including ion channels, receptors, transporters, scaffolding proteins, enzyme molecules, signaling molecules, and effectors. Most interactions occur primarily between the opposing terminal tails (amino or carboxyl) of CFTR protein and its binding partners, either directly or mediated through various PDZ scaffolding proteins. These dynamic interactions impact the channel function, as well as localization and processing of CFTR protein within cells. This article reviews the most recent progress and findings about the interactions between CFTR and its binding partners through PDZ scaffolding proteins, as well as the spatiotemporal regulation of CFTR-containing macromolecular signaling complexes in the apical compartments of polarized cells lining the secretory epithelia.

Entities:  

Mesh:

Substances:

Year:  2010        PMID: 20473396      PMCID: PMC2989726          DOI: 10.1039/b924455g

Source DB:  PubMed          Journal:  Integr Biol (Camb)        ISSN: 1757-9694            Impact factor:   2.192


  162 in total

Review 1.  CFTR, a regulator of channels.

Authors:  K Kunzelmann; R Schreiber
Journal:  J Membr Biol       Date:  1999-03-01       Impact factor: 1.843

2.  A novel plant-derived inhibitor of cAMP-mediated fluid and chloride secretion.

Authors:  S E Gabriel; S E Davenport; R J Steagall; V Vimal; T Carlson; E J Rozhon
Journal:  Am J Physiol       Date:  1999-01

3.  The cystic fibrosis transmembrane conductance regulator activates aquaporin 3 in airway epithelial cells.

Authors:  R Schreiber; R Nitschke; R Greger; K Kunzelmann
Journal:  J Biol Chem       Date:  1999-04-23       Impact factor: 5.157

4.  Molecular characterization of a broad selectivity neutral solute channel.

Authors:  H Tsukaguchi; C Shayakul; U V Berger; B Mackenzie; S Devidas; W B Guggino; A N van Hoek; M A Hediger
Journal:  J Biol Chem       Date:  1998-09-18       Impact factor: 5.157

5.  CFTR drives Na+-nHCO-3 cotransport in pancreatic duct cells: a basis for defective HCO-3 secretion in CF.

Authors:  H Shumaker; H Amlal; R Frizzell; C D Ulrich; M Soleimani
Journal:  Am J Physiol       Date:  1999-01

6.  Identification of a novel cortactin SH3 domain-binding protein and its localization to growth cones of cultured neurons.

Authors:  Y Du; S A Weed; W C Xiong; T D Marshall; J T Parsons
Journal:  Mol Cell Biol       Date:  1998-10       Impact factor: 4.272

7.  Regulation of Cl-/ HCO3- exchange by cystic fibrosis transmembrane conductance regulator expressed in NIH 3T3 and HEK 293 cells.

Authors:  M G Lee; W C Wigley; W Zeng; L E Noel; C R Marino; P J Thomas; S Muallem
Journal:  J Biol Chem       Date:  1999-02-05       Impact factor: 5.157

Review 8.  CFTR is a conductance regulator as well as a chloride channel.

Authors:  E M Schwiebert; D J Benos; M E Egan; M J Stutts; W B Guggino
Journal:  Physiol Rev       Date:  1999-01       Impact factor: 37.312

Review 9.  Pharmacology of CFTR chloride channel activity.

Authors:  B D Schultz; A K Singh; D C Devor; R J Bridges
Journal:  Physiol Rev       Date:  1999-01       Impact factor: 37.312

Review 10.  Biosynthesis and degradation of CFTR.

Authors:  R R Kopito
Journal:  Physiol Rev       Date:  1999-01       Impact factor: 37.312

View more
  65 in total

1.  CFTR regulation in human airway epithelial cells requires integrity of the actin cytoskeleton and compartmentalized cAMP and PKA activity.

Authors:  Stefania Monterisi; Maria Favia; Lorenzo Guerra; Rosa A Cardone; Domenico Marzulli; Stephan J Reshkin; Valeria Casavola; Manuela Zaccolo
Journal:  J Cell Sci       Date:  2012-02-02       Impact factor: 5.285

2.  Localization of cystic fibrosis transmembrane conductance regulator signaling complexes in human salivary gland striated duct cells.

Authors:  Vina Z Zinn; Aditi Khatri; Maija I Mednieks; Arthur R Hand
Journal:  Eur J Oral Sci       Date:  2015-04-22       Impact factor: 2.612

Review 3.  Pathobiology of inherited biliary diseases: a roadmap to understand acquired liver diseases.

Authors:  Luca Fabris; Romina Fiorotto; Carlo Spirli; Massimiliano Cadamuro; Valeria Mariotti; Maria J Perugorria; Jesus M Banales; Mario Strazzabosco
Journal:  Nat Rev Gastroenterol Hepatol       Date:  2019-08       Impact factor: 46.802

Review 4.  Emerging Themes in PDZ Domain Signaling: Structure, Function, and Inhibition.

Authors:  Xu Liu; Ernesto J Fuentes
Journal:  Int Rev Cell Mol Biol       Date:  2018-06-28       Impact factor: 6.813

Review 5.  Epithelial dynamics in the epididymis: role in the maturation, protection, and storage of spermatozoa.

Authors:  S Breton; A V Nair; M A Battistone
Journal:  Andrology       Date:  2019-05-01       Impact factor: 3.842

Review 6.  CFTR and TNR-CFTR expression and function in the kidney.

Authors:  Jackson Souza-Menezes; Geórgia da Silva Feltran; Marcelo M Morales
Journal:  Biophys Rev       Date:  2014-05-07

7.  Compartmentalized accumulation of cAMP near complexes of multidrug resistance protein 4 (MRP4) and cystic fibrosis transmembrane conductance regulator (CFTR) contributes to drug-induced diarrhea.

Authors:  Changsuk Moon; Weiqiang Zhang; Aixia Ren; Kavisha Arora; Chandrima Sinha; Sunitha Yarlagadda; Koryse Woodrooffe; John D Schuetz; Koteswara Rao Valasani; Hugo R de Jonge; Shiva Kumar Shanmukhappa; Mohamed Tarek M Shata; Randal K Buddington; Kaushik Parthasarathi; Anjaparavanda P Naren
Journal:  J Biol Chem       Date:  2015-03-11       Impact factor: 5.157

8.  The cystic fibrosis transmembrane conductance regulator controls biliary epithelial inflammation and permeability by regulating Src tyrosine kinase activity.

Authors:  Romina Fiorotto; Ambra Villani; Antonis Kourtidis; Roberto Scirpo; Mariangela Amenduni; Peter J Geibel; Massimiliano Cadamuro; Carlo Spirli; Panos Z Anastasiadis; Mario Strazzabosco
Journal:  Hepatology       Date:  2016-10-27       Impact factor: 17.425

9.  In vitro analysis of PDZ-dependent CFTR macromolecular signaling complexes.

Authors:  Yanning Wu; Shuo Wang; Chunying Li
Journal:  J Vis Exp       Date:  2012-08-13       Impact factor: 1.355

Review 10.  Local modulation of cystic fibrosis conductance regulator: cytoskeleton and compartmentalized cAMP signalling.

Authors:  Stefania Monterisi; Valeria Casavola; Manuela Zaccolo
Journal:  Br J Pharmacol       Date:  2013-05       Impact factor: 8.739

View more

北京卡尤迪生物科技股份有限公司 © 2022-2023.