Literature DB >> 19767529

A high-fat diet increases adiposity but maintains mitochondrial oxidative enzymes without affecting development of heart failure with pressure overload.

David J Chess1, Ramzi J Khairallah, Karen M O'Shea, Wenhong Xu, William C Stanley.   

Abstract

A high-fat diet can increase adiposity, leptin secretion, and plasma fatty acid concentration. In hypertension, this scenario may accelerate cardiac hypertrophy and development of heart failure but could be protective by activating peroxisome proliferator-activated receptors and expression of mitochondrial oxidative enzymes. We assessed the effects of a high-fat diet on the development of left ventricular hypertrophy, remodeling, contractile dysfunction, and the activity of mitochondrial oxidative enzymes. Mice (n = 10-12/group) underwent transverse aortic constriction (TAC) or sham surgery and were fed either a low-fat diet (10% of energy intake as fat) or a high-fat diet (45% fat) for 6 wk. The high-fat diet increased adipose tissue mass and plasma leptin and insulin. Left ventricular mass and chamber size were unaffected by diet in sham animals. TAC increased left ventricular mass (approximately 70%) and end-systolic and end-diastolic areas (approximately 100% and approximately 45%, respectively) to the same extent in both dietary groups. The high-fat diet increased plasma free fatty acid concentration and prevented the decline in the activity of the mitochondrial enzymes medium chain acyl-coenzyme A dehydrogenase (MCAD) and citrate synthase that was observed with TAC animals on a low-fat diet. In conclusion, a high-fat diet did not worsen cardiac hypertrophy or left ventricular chamber enlargement despite increases in fat mass and insulin and leptin concentrations. Furthermore, a high-fat diet preserved MCAD and citrate synthase activities during pressure overload, suggesting that it may help maintain mitochondrial oxidative capacity in failing myocardium.

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Year:  2009        PMID: 19767529      PMCID: PMC2781358          DOI: 10.1152/ajpheart.00599.2009

Source DB:  PubMed          Journal:  Am J Physiol Heart Circ Physiol        ISSN: 0363-6135            Impact factor:   4.733


  42 in total

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2.  Direct effects of leptin on size and extracellular matrix components of human pediatric ventricular myocytes.

Authors:  Siham Madani; Sabrina De Girolamo; Diana Marcela Muñoz; Ren-Ke Li; Gary Sweeney
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3.  Unraveling the temporal pattern of diet-induced insulin resistance in individual organs and cardiac dysfunction in C57BL/6 mice.

Authors:  So-Young Park; You-Ree Cho; Hyo-Jeong Kim; Takamasa Higashimori; Cheryl Danton; Mi-Kyung Lee; Asim Dey; Beverly Rothermel; Young-Bum Kim; April Kalinowski; Kerry S Russell; Jason K Kim
Journal:  Diabetes       Date:  2005-12       Impact factor: 9.461

4.  An autocrine role for leptin in mediating the cardiomyocyte hypertrophic effects of angiotensin II and endothelin-1.

Authors:  Venkatesh Rajapurohitam; Sabzali Javadov; Daniel M Purdham; Lorrie A Kirshenbaum; Morris Karmazyn
Journal:  J Mol Cell Cardiol       Date:  2006-06-23       Impact factor: 5.000

5.  Low carbohydrate/high-fat diet attenuates cardiac hypertrophy, remodeling, and altered gene expression in hypertension.

Authors:  Isidore C Okere; Martin E Young; Tracy A McElfresh; David J Chess; Victor G Sharov; Hani N Sabbah; Brian D Hoit; Paul Ernsberger; Margaret P Chandler; William C Stanley
Journal:  Hypertension       Date:  2006-10-23       Impact factor: 10.190

6.  Glucose-6-phosphate dehydrogenase-derived NADPH fuels superoxide production in the failing heart.

Authors:  Sachin A Gupte; Robert J Levine; Rakhee S Gupte; Martin E Young; Vincenzo Lionetti; Volodymyr Labinskyy; Beverly C Floyd; Caroline Ojaimi; Michelle Bellomo; Michael S Wolin; Fabio A Recchia
Journal:  J Mol Cell Cardiol       Date:  2006-07-07       Impact factor: 5.000

Review 7.  Heart failure: a model of cardiac and skeletal muscle energetic failure.

Authors:  B Mettauer; J Zoll; A Garnier; R Ventura-Clapier
Journal:  Pflugers Arch       Date:  2006-06-10       Impact factor: 3.657

8.  High fructose diet increases mortality in hypertensive rats compared to a complex carbohydrate or high fat diet.

Authors:  Naveen Sharma; Isidore C Okere; Monika K Duda; Janean Johnson; Celvie L Yuan; Margaret P Chandler; Paul Ernsberger; Brian D Hoit; William C Stanley
Journal:  Am J Hypertens       Date:  2007-04       Impact factor: 2.689

Review 9.  Leptin as a cardiac hypertrophic factor: a potential target for therapeutics.

Authors:  Morris Karmazyn; Daniel M Purdham; Venkatesh Rajapurohitam; Asad Zeidan
Journal:  Trends Cardiovasc Med       Date:  2007-08       Impact factor: 6.677

10.  Deleterious effects of sugar and protective effects of starch on cardiac remodeling, contractile dysfunction, and mortality in response to pressure overload.

Authors:  David J Chess; Biao Lei; Brian D Hoit; Agnes M Azimzadeh; William C Stanley
Journal:  Am J Physiol Heart Circ Physiol       Date:  2007-07-06       Impact factor: 4.733

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  26 in total

1.  Antioxidant treatment normalizes mitochondrial energetics and myocardial insulin sensitivity independently of changes in systemic metabolic homeostasis in a mouse model of the metabolic syndrome.

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2.  Treatment with docosahexaenoic acid, but not eicosapentaenoic acid, delays Ca2+-induced mitochondria permeability transition in normal and hypertrophied myocardium.

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Journal:  J Pharmacol Exp Ther       Date:  2010-07-12       Impact factor: 4.030

Review 3.  Dietary fat and heart failure: moving from lipotoxicity to lipoprotection.

Authors:  William C Stanley; Erinne R Dabkowski; Rogerio F Ribeiro; Kelly A O'Connell
Journal:  Circ Res       Date:  2012-03-02       Impact factor: 17.367

4.  Cardiac-specific deletion of acetyl CoA carboxylase 2 prevents metabolic remodeling during pressure-overload hypertrophy.

Authors:  Stephen C Kolwicz; David P Olson; Luke C Marney; Lorena Garcia-Menendez; Robert E Synovec; Rong Tian
Journal:  Circ Res       Date:  2012-06-22       Impact factor: 17.367

Review 5.  Assessing Cardiac Metabolism: A Scientific Statement From the American Heart Association.

Authors:  Heinrich Taegtmeyer; Martin E Young; Gary D Lopaschuk; E Dale Abel; Henri Brunengraber; Victor Darley-Usmar; Christine Des Rosiers; Robert Gerszten; Jan F Glatz; Julian L Griffin; Robert J Gropler; Hermann-Georg Holzhuetter; Jorge R Kizer; E Douglas Lewandowski; Craig R Malloy; Stefan Neubauer; Linda R Peterson; Michael A Portman; Fabio A Recchia; Jennifer E Van Eyk; Thomas J Wang
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Review 6.  Metabolic therapy at the crossroad: how to optimize myocardial substrate utilization?

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7.  High intake of saturated fat, but not polyunsaturated fat, improves survival in heart failure despite persistent mitochondrial defects.

Authors:  Tatiana F Galvao; Bethany H Brown; Peter A Hecker; Kelly A O'Connell; Karen M O'Shea; Hani N Sabbah; Sharad Rastogi; Caroline Daneault; Christine Des Rosiers; William C Stanley
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8.  The transcriptional coactivators, PGC-1α and β, cooperate to maintain cardiac mitochondrial function during the early stages of insulin resistance.

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Journal:  J Mol Cell Cardiol       Date:  2011-10-20       Impact factor: 5.000

9.  High-fat feeding-induced hyperinsulinemia increases cardiac glucose uptake and mitochondrial function despite peripheral insulin resistance.

Authors:  Anisha A Gupte; Laurie J Minze; Maricela Reyes; Yuelan Ren; Xukui Wang; Gerd Brunner; Mohamad Ghosn; Andrea M Cordero-Reyes; Karen Ding; Domenico Pratico; Joel Morrisett; Zheng-Zheng Shi; Dale J Hamilton; Christopher J Lyon; Willa A Hsueh
Journal:  Endocrinology       Date:  2013-05-24       Impact factor: 4.736

Review 10.  Fuel availability and fate in cardiac metabolism: A tale of two substrates.

Authors:  Florencia Pascual; Rosalind A Coleman
Journal:  Biochim Biophys Acta       Date:  2016-03-16
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