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2.
Adv Ther ; 34(10): 2386-2391, 2017 10.
Article in English | MEDLINE | ID: mdl-28884449

ABSTRACT

This article is co-authored by the mother of a child with obesity and insulin resistance, who gives her perspective. It is also co-authored by the treating Obesity Medicine clinician and an investigator in obesity clinical research (both certified in Obesity Medicine), who give their perspectives. The discussion focuses upon the potential clinical use of metformin in managing young patients with obesity and insulin resistance. The article integrates what is scientifically known about the mechanisms of actions of metformin and how these mechanisms are reflected in the clinical response of young patients.


Subject(s)
Attitude to Health , Hypoglycemic Agents/therapeutic use , Insulin Resistance/physiology , Insulin/therapeutic use , Metformin/therapeutic use , Pediatric Obesity/drug therapy , Pediatric Obesity/physiopathology , Adolescent , Adult , Child , Child, Preschool , Female , Humans , Hunger/physiology , Male , Middle Aged , Mothers/psychology , Patients/psychology , Pediatric Obesity/psychology , Physicians/psychology
3.
Surg Obes Relat Dis ; 12(3): 468-495, 2016.
Article in English | MEDLINE | ID: mdl-27050404

ABSTRACT

Bariatric procedures generally improve dyslipidemia, sometimes substantially so. Bariatric procedures also improve other major cardiovascular risk factors. This 2-part Scientific Statement examines the lipid effects of bariatric procedures and reflects contributions from authors representing the American Society for Metabolic and Bariatric Surgery (ASMBS), the National Lipid Association (NLA), and the Obesity Medicine Association (OMA). Part 1 was published in the Journal of Clinical Lipidology, and reviewed the impact of bariatric procedures upon adipose tissue endocrine and immune factors, adipose tissue lipid metabolism, as well as the lipid effects of bariatric procedures relative to bile acids and intestinal microbiota. This Part 2 reviews: (1) the importance of nutrients (fats, carbohydrates, and proteins) and their absorption on lipid levels; (2) the effects of bariatric procedures on gut hormones and lipid levels; (3) the effects of bariatric procedures on nonlipid cardiovascular disease (CVD) risk factors; (4) the effects of bariatric procedures on lipid levels; (5) effects of bariatric procedures on CVD; and finally, (6) the potential lipid effects of vitamin, mineral, and trace element deficiencies, that may occur after bariatric procedures.


Subject(s)
Dyslipidemias/physiopathology , Dyslipidemias/surgery , Obesity/physiopathology , Obesity/surgery , Bariatric Surgery , Cardiovascular Diseases/etiology , Cardiovascular Diseases/physiopathology , Deficiency Diseases/etiology , Deficiency Diseases/physiopathology , Humans , Lipid Metabolism/physiology , Obesity/complications
4.
J Clin Lipidol ; 10(1): 15-32, 2016.
Article in English | MEDLINE | ID: mdl-26892119

ABSTRACT

Bariatric procedures often improve lipid levels in patients with obesity. This 2-part scientific statement examines the potential lipid benefits of bariatric procedures and represents contributions from authors representing the National Lipid Association, American Society for Metabolic and Bariatric Surgery, and the Obesity Medicine Association. The foundation for this scientific statement was based on data published through June 2015. Part 1 of this 2-part scientific statement provides an overview of: (1) adipose tissue, cholesterol metabolism, and lipids; (2) bariatric procedures, cholesterol metabolism, and lipids; (3) endocrine factors relevant to lipid influx, synthesis, metabolism, and efflux; (4) immune factors relevant to lipid influx, synthesis, metabolism, and efflux; (5) bariatric procedures, bile acid metabolism, and lipids; and (6) bariatric procedures, intestinal microbiota, and lipids, with specific emphasis on how the alterations in the microbiome by bariatric procedures influence obesity, bile acids, and inflammation, which in turn, may all affect lipid levels. Included in part 2 of this comprehensive scientific statement will be a review of: (1) the importance of nutrients (fats, carbohydrates, and proteins) and their absorption on lipid levels; (2) the effects of bariatric procedures on gut hormones and lipid levels; (3) the effects of bariatric procedures on nonlipid cardiovascular disease risk factors; (4) the effects of bariatric procedures on lipid levels; (5) effects of bariatric procedures on cardiovascular disease; and finally (6) the potential lipid effects of vitamin, mineral, and trace element deficiencies that may occur after bariatric procedures. This document represents the executive summary of part 1.


Subject(s)
Bariatric Surgery , Lipid Metabolism , Obesity/metabolism , Obesity/surgery , Societies, Medical , Adipose Tissue/metabolism , Animals , Bile Acids and Salts/metabolism , Cholesterol/metabolism , Gastrointestinal Hormones/metabolism , Gastrointestinal Microbiome , Humans , Obesity/microbiology , Obesity/pathology , United States
5.
J Clin Lipidol ; 10(1): 33-57, 2016.
Article in English | MEDLINE | ID: mdl-26892120

ABSTRACT

Bariatric procedures often improve lipid levels in patients with obesity. This 2 part scientific statement examines the potential lipid benefits of bariatric procedures and represents the contributions from authors representing the National Lipid Association, American Society for Metabolic and Bariatric Surgery, and the Obesity Medicine Association. The foundation for this scientific statement was based on published data through June 2015. Part 1 of this 2 part scientific statement provides an overview of: (1) adipose tissue, cholesterol metabolism, and lipids; (2) bariatric procedures, cholesterol metabolism, and lipids; (3) endocrine factors relevant to lipid influx, synthesis, metabolism, and efflux; (4) immune factors relevant to lipid influx, synthesis, metabolism, and efflux; (5) bariatric procedures, bile acid metabolism, and lipids; and (6) bariatric procedures, intestinal microbiota, and lipids, with specific emphasis on how the alterations in the microbiome by bariatric procedures influence obesity, bile acids, and inflammation, which in turn, may all affect lipid levels. Included in part 2 of this comprehensive scientific statement will be a review of (1) the importance of nutrients (fats, carbohydrates, and proteins) and their absorption on lipid levels; (2) the effects of bariatric procedures on gut hormones and lipid levels; (3) the effects of bariatric procedures on nonlipid cardiovascular disease (CVD) risk factors; (4) the effects of bariatric procedures on lipid levels; (5) effects of bariatric procedures on CVD; and finally, (6) the potential lipid effects of vitamin, mineral, and trace element deficiencies that may occur after bariatric procedures. This document represents the full report of part 1.


Subject(s)
Bariatric Surgery , Lipid Metabolism , Obesity/metabolism , Obesity/surgery , Societies, Medical , Adipose Tissue/metabolism , Animals , Bile Acids and Salts/metabolism , Biological Transport , Cholesterol/metabolism , Endocrine System/physiopathology , Gastrointestinal Microbiome , Humans , Lipids/biosynthesis , Obesity/microbiology , Obesity/pathology , United States
6.
Curr Med Res Opin ; 31(11): 2059-69, 2015 Nov.
Article in English | MEDLINE | ID: mdl-26331354

ABSTRACT

BACKGROUND: To examine the contribution of generational epigenetic dysregulation to the inception of obesity and its adiposopathic consequences. METHODS: Sources for this review included searches of PubMed, Google Scholar, and international government/major association websites using terms including adiposity, adiposopathy, epigenetics, genetics, and obesity. RESULTS: Excessive energy storage in adipose tissue often results in fat cell and fat organ dysfunction, which may cause metabolic and fat mass disorders. The adverse clinical manifestations of obesity are not solely due to the amount of body fat (adiposity), but are also dependent on anatomical and functional perturbations (adiposopathy or 'sick fat'). This review describes extragenetic factors and genetic conditions that promote obesity. It also serves as an introduction to epigenetic dysregulation (i.e., abnormalities in gene expression that occur without alteration in the genetic code itself), which may contribute to obesity and adiposopathic metabolic health outcomes in offspring. Within the epigenetic paradigm, obesity is a transgenerational disease, with weight lost or gained by either parent potentially impacting generational risk for obesity and its complications. CONCLUSIONS: Epigenetics may be an important contributor to the emergence of obesity and its complications as global epidemics. Although transgenerational epigenetic influences present challenges, they may also present interventional opportunities, via justifying weight management for individuals before, during, and after pregnancy and for future generations.


Subject(s)
Adiposity , Obesity/epidemiology , Body Weight , Humans , Obesity/genetics
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