Viewing Study NCT01896414



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Study NCT ID: NCT01896414
Status: COMPLETED
Last Update Posted: 2020-01-14
First Post: 2013-06-18

Brief Title: Metabolic Actions of Omega-3 Fatty Acids
Sponsor: University of Maryland Baltimore
Organization: University of Maryland Baltimore

Study Overview

Official Title: Metabolic Actions of Omega-3 Fatty Acids on Inflammation and Adipocyte Lipolysis in the Metabolic Syndrome
Status: COMPLETED
Status Verified Date: 2020-01
Last Known Status: None
Delayed Posting: No
If Stopped, Why?: Not Stopped
Has Expanded Access: False
If Expanded Access, NCT#: N/A
Has Expanded Access, NCT# Status: N/A
Acronym: None
Brief Summary: The metabolic syndrome raises the risk of heart disease and is currently at epidemic proportions in the US It consists of 3 of the following components central obesity high triglycerides low HDL abnormal blood pressure and impaired fasting glucose levels Previous studies have suggested that omega-3 fish oil may influence some of these components but the mechanisms involved are not well understood Therefore this proposal will investigate how omega-3 fish oils affect inflammation lipids and fat breakdown by comparing it to placebo Favorable outcomes from this study could translate into a new approach to improve heart disease risk in men and women with the metabolic syndrome
Detailed Description: Metabolic Actions of Omega-3 Fatty Acids on Inflammation and Adipocyte Lipolysis in the Metabolic Syndrome

Epidemiological studies identify metabolic syndrome MetS as a biomarker of cardiovascular disease CVD risk and recent AHA scientific statements recommend intensive lifestyle diet and exercise measures to reduce risk Marine-derived omega-3 polyunsaturated fatty acids such as eicosapentanoic acid EPA improve many constituents of the metabolic syndrome such as lowering fasting TG and glucose levels inflammation insulin resistance and blood pressure These improvements may be mediated by increased fat cell storage and metabolism and lipids reducing inflammation and ectopic fat deposition in visceral abdominal tissue muscle and liver that results in excessive pro-inflammatory intra-abdominal fat IAF insulin resistance and reduced levels of HDL cholesterol hallmark characteristics of the MetS The anti-inflammatory actions of EPA lower acute phase reactants APRs and proinflammatory mediators are mechanisms for their lipid lowering and insulin sensitizing effects to reduce CVD risk The systematic investigation of marine-derived omega-3 PUFAs on these inflammatory metabolic and physiological parameters will provide new mechanistic insights for the therapeutic use of a potentially beneficial safe nutraceutical EPA in patients with MetS Thus it is our hypothesis that supplementation of marine-derived omega-3 PUFAs will reduce constituents of MetS as well as systemic and tissue inflammation insulin resistance HOMA-IR adipocyte lipolysis and cytokine release from AT to enhance TG storage capacity of subcutaneous AT The reduction in inflammation and increase in insulin sensitivity will remodel adipose tissue to function more efficiently in TG uptake and storage thus reducing circulating FFAs and cytokines We postulate that these metabolic effects may decrease ectopic fat deposition in viscera IAF and muscle an intriguing novel outcome that provides rationale for the 9 month treatment

The Specific Aims are to conduct a pilot 9 month randomized trial in adults with high Tg and at least one other component of the MetS to compare the effects of EPA vs placebo on

Aim 1 Metabolic eg lipoproteins inflammatory cytokines acute phase reactants glucose toleranceinsulin resistance and adipose tissue responses basal and insulin suppression of lipolysis ED50 LPL activity cytokine release and lipogenesis

Aim 2 Regional fat distribution quantified anthropometrically as waist and hip circumference visceral and subcutaneous adipose volumes and muscle lipid accumulation by CT-scan and body composition total and regional fat mass by dual energy absorptiometry DXA

These outcomes have potentially intriguing therapeutic implications for marine derived omega-3 PUFA supplementation as part of a lifestyle program for patients at increased cardiometabolic risk

Study Oversight

Has Oversight DMC: None
Is a FDA Regulated Drug?: None
Is a FDA Regulated Device?: None
Is an Unapproved Device?: None
Is a PPSD?: None
Is a US Export?: None
Is an FDA AA801 Violation?: None
Secondary IDs
Secondary ID Type Domain Link
R21HL113576-01 NIH None httpsreporternihgovquickSearchR21HL113576-01