Literature DB >> 21362533

Left ventricular dysfunction in murine models of heart failure and in failing human heart is associated with a selective decrease in the expression of caveolin-3.

Ellina Cheskis Feiner1, Paul Chung, Jean Francois Jasmin, Jin Zhang, Diana Whitaker-Menezes, Valerie Myers, Jianliang Song, Elizabeth W Feldman, Hajime Funakoshi, Brent R Degeorge, Rao V Yelamarty, Walter J Koch, Michael P Lisanti, Charles F McTiernan, Joseph Y Cheung, Michael R Bristow, Tung O Chan, Arthur M Feldman.   

Abstract

BACKGROUND: Caveolins are scaffolding proteins that are integral components of caveolae, flask-shaped invaginations in the membranes of all mammalian cells. Caveolin-1 and -2 are expressed ubiquitously, whereas caveolin-3 is found only in muscle. The role of caveolin-3 in heart muscle disease is controversial. METHODS AND
RESULTS: The present study was undertaken to assess the effects of left ventricular dysfunction on the expression of caveolin proteins using 2 well characterized models of murine heart failure and failing human heart. Transgenic mice with constitutive overexpression of A(1)-adenosine receptor (A(1)-TG) demonstrated cardiac dilatation and decreased left ventricular function at 10 weeks of age. This was accompanied by a marked decrease in caveolin-3 mRNA and protein levels compared with non-TG control mice. The change in caveolin-3 expression was selective, because levels of caveolin-1 and -2 did not change. Confocal imaging of myocytes isolated from A(1)-TG mice demonstrated a loss of the plate-like appearance of T tubules. Caveolin-3 levels were also reduced in hearts from mice overexpressing tumor necrosis factor α. There was a direct relationship between caveolin-3 expression and fractional shortening in all mice that were studied (r = 0.65; P < .001). Although we could not demonstrate a significant decrease in caveolin-3 levels in failing human heart, we did find a direct correlation (r = 0.7; P < .05) between levels of caveolin-3 protein and Ca(2+)-adenosine triphosphatase, a marker of the heart failure phenotype.
CONCLUSIONS: These results suggest a relationship between left ventricular dysfunction and caveolin-3 levels and suggest that caveolin-3 may provide a novel target for heart failure therapy.
Copyright © 2011 Elsevier Inc. All rights reserved.

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Year:  2010        PMID: 21362533      PMCID: PMC3073520          DOI: 10.1016/j.cardfail.2010.10.008

Source DB:  PubMed          Journal:  J Card Fail        ISSN: 1071-9164            Impact factor:   5.712


  31 in total

1.  Analysis of relative gene expression data using real-time quantitative PCR and the 2(-Delta Delta C(T)) Method.

Authors:  K J Livak; T D Schmittgen
Journal:  Methods       Date:  2001-12       Impact factor: 3.608

2.  The basic helix-loop-helix transcription factors myogenin and Id2 mediate specific induction of caveolin-3 gene expression during embryonic development.

Authors:  C H Biederer; S J Ries; M Moser; M Florio; M A Israel; F McCormick; R Buettner
Journal:  J Biol Chem       Date:  2000-08-25       Impact factor: 5.157

3.  Contribution of caveolin protein abundance to augmented nitric oxide signaling in conscious dogs with pacing-induced heart failure.

Authors:  J M Hare; R A Lofthouse; G J Juang; L Colman; K M Ricker; B Kim; H Senzaki; S Cao; R S Tunin; D A Kass
Journal:  Circ Res       Date:  2000-05-26       Impact factor: 17.367

Review 4.  Calcium signal transduction from caveolae.

Authors:  M Isshiki; R G Anderson
Journal:  Cell Calcium       Date:  1999-11       Impact factor: 6.817

5.  Chronic myocardial hypoxia increases nitric oxide synthase and decreases caveolin-3.

Authors:  Y Shi; K A Pritchard; P Holman; P Rafiee; O W Griffith; B Kalyanaraman; J E Baker
Journal:  Free Radic Biol Med       Date:  2000-10-15       Impact factor: 7.376

Review 6.  The role of tumor necrosis factor in the pathophysiology of heart failure.

Authors:  A M Feldman; A Combes; D Wagner; T Kadakomi; T Kubota; Y Y Li; C McTiernan
Journal:  J Am Coll Cardiol       Date:  2000-03-01       Impact factor: 24.094

7.  Akt activation preserves cardiac function and prevents injury after transient cardiac ischemia in vivo.

Authors:  T Matsui; J Tao; F del Monte; K H Lee; L Li; M Picard; T L Force; T F Franke; R J Hajjar; A Rosenzweig
Journal:  Circulation       Date:  2001-07-17       Impact factor: 29.690

8.  Akt promotes survival of cardiomyocytes in vitro and protects against ischemia-reperfusion injury in mouse heart.

Authors:  Y Fujio; T Nguyen; D Wencker; R N Kitsis; K Walsh
Journal:  Circulation       Date:  2000-02-15       Impact factor: 29.690

9.  Intracoronary, adenovirus-mediated Akt gene transfer in heart limits infarct size following ischemia-reperfusion injury in vivo.

Authors:  W Miao; Z Luo; R N Kitsis; K Walsh
Journal:  J Mol Cell Cardiol       Date:  2000-12       Impact factor: 5.000

10.  Caveolin-3 knock-out mice develop a progressive cardiomyopathy and show hyperactivation of the p42/44 MAPK cascade.

Authors:  Scott E Woodman; David S Park; Alex W Cohen; Michelle W-C Cheung; Madhulika Chandra; Jamshid Shirani; Baiyu Tang; Linda A Jelicks; Richard N Kitsis; George J Christ; Stephen M Factor; Herbert B Tanowitz; Michael P Lisanti
Journal:  J Biol Chem       Date:  2002-07-23       Impact factor: 5.157

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  29 in total

1.  Caveolin-3 Overexpression Attenuates Cardiac Hypertrophy via Inhibition of T-type Ca2+ Current Modulated by Protein Kinase Cα in Cardiomyocytes.

Authors:  Yogananda S Markandeya; Laura J Phelan; Marites T Woon; Alexis M Keefe; Courtney R Reynolds; Benjamin K August; Timothy A Hacker; David M Roth; Hemal H Patel; Ravi C Balijepalli
Journal:  J Biol Chem       Date:  2015-07-13       Impact factor: 5.157

Review 2.  Caveolins in cardioprotection - translatability and mechanisms.

Authors:  Jan M Schilling; David M Roth; Hemal H Patel
Journal:  Br J Pharmacol       Date:  2015-01-13       Impact factor: 8.739

3.  Caveolin-3 plays a critical role in autophagy after ischemia-reperfusion.

Authors:  Adam Kassan; Uyen Pham; Quynhmy Nguyen; Melissa E Reichelt; Eunbyul Cho; Piyush M Patel; David M Roth; Brian P Head; Hemal H Patel
Journal:  Am J Physiol Cell Physiol       Date:  2016-10-05       Impact factor: 4.249

4.  Cardioprotective Role of Caveolae in Ischemia-Reperfusion Injury.

Authors:  Junhui Sun; Tiffany Nguyen; Mark J Kohr; Elizabeth Murphy
Journal:  Transl Med (Sunnyvale)       Date:  2013-09-16

5.  Ca(2+) homeostasis in sealed t-tubules of mouse ventricular myocytes.

Authors:  I Moench; A N Lopatin
Journal:  J Mol Cell Cardiol       Date:  2014-04-28       Impact factor: 5.000

Review 6.  Adenosine receptor subtypes and the heart failure phenotype: translating lessons from mice to man.

Authors:  Arthur M Feldman; Ellina Cheksis-Feiner; Eman Hamad; Tung Chan
Journal:  Trans Am Clin Climatol Assoc       Date:  2011

Review 7.  Trafficking of β-Adrenergic Receptors: Implications in Intracellular Receptor Signaling.

Authors:  Qin Fu; Yang K Xiang
Journal:  Prog Mol Biol Transl Sci       Date:  2015-04-29       Impact factor: 3.622

8.  Genetically Encoded Biosensors Reveal PKA Hyperphosphorylation on the Myofilaments in Rabbit Heart Failure.

Authors:  Federica Barbagallo; Bing Xu; Gopireddy R Reddy; Toni West; Qingtong Wang; Qin Fu; Minghui Li; Qian Shi; Kenneth S Ginsburg; William Ferrier; Andrea M Isidori; Fabio Naro; Hemal H Patel; Julie Bossuyt; Donald Bers; Yang K Xiang
Journal:  Circ Res       Date:  2016-08-30       Impact factor: 17.367

9.  CASAAV Technology to Examine Regulators of Heart Failure: Cause or Effect.

Authors:  Ying Fu; Robin M Shaw
Journal:  Circ Res       Date:  2017-06-09       Impact factor: 17.367

Review 10.  Nitric oxide synthases in heart failure.

Authors:  Ricardo Carnicer; Mark J Crabtree; Vidhya Sivakumaran; Barbara Casadei; David A Kass
Journal:  Antioxid Redox Signal       Date:  2012-09-20       Impact factor: 8.401

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