retinol-palmitate and Cardiovascular-Diseases

retinol-palmitate has been researched along with Cardiovascular-Diseases* in 2 studies

Trials

1 trial(s) available for retinol-palmitate and Cardiovascular-Diseases

ArticleYear
Effects of different fractions of whey protein on postprandial lipid and hormone responses in type 2 diabetes.
    European journal of clinical nutrition, 2012, Volume: 66, Issue:7

    Exacerbated postprandial lipid responses are associated with an increased cardiovascular risk. Dietary proteins influence postprandial lipemia differently, and whey protein has a preferential lipid-lowering effect. We compared the effects of different whey protein fractions on postprandial lipid and hormone responses added to a high-fat meal in type 2 diabetic subjects.. A total of 12 type 2 diabetic subjects ingested four isocaloric test meals in randomized order. The test meals contained 100 g of butter and 45 g of carbohydrate in combination with 45 g of whey isolate (iso-meal), whey hydrolysate (hydro-meal), α-lactalbumin enhanced whey (lac-meal) or caseinoglycomacropeptide enhanced whey (CGMP-meal). Plasma concentrations of triglyceride, retinyl palmitate, free fatty acid, insulin, glucose, glucagon, glucagon-like peptide 1 and glucose-dependent insulinotropic peptide were measured before and at regular intervals until 8-h postprandially.. We found no statistical significant differences between meals on our primary variable triglyceride. The retinyl palmitate response was higher after the hydro-meal than after the iso- and lac-meal in the chylomicron-rich fraction (P=0.008) while no significant differences were found in the chylomicron-poor fraction. The hydro- and iso-meal produced a higher insulin response compared with the lac- and CGMP-meal (P<0.001). Otherwise no significant differences in the hormone responses were found in the incremental area under the curve over the 480-min period.. A supplement of four different whey protein fractions to a fat-rich meal had similar effects on postprandial triglyceride responses in type 2 diabetic subjects. Whey isolate and whey hydrolysate caused a higher insulin response.

    Topics: Aged; Area Under Curve; Cardiovascular Diseases; Caseins; Chylomicrons; Diabetes Mellitus, Type 2; Dietary Fats; Dietary Proteins; Dietary Supplements; Diterpenes; Female; Glycopeptides; Humans; Hyperlipidemias; Hypolipidemic Agents; Insulin; Lactalbumin; Male; Middle Aged; Milk Proteins; Postprandial Period; Protein Hydrolysates; Retinyl Esters; Triglycerides; Vitamin A; Whey Proteins

2012

Other Studies

1 other study(ies) available for retinol-palmitate and Cardiovascular-Diseases

ArticleYear
Postprandial lipoprotein responses in hypertriglyceridemic subjects with and without cardiovascular disease.
    Metabolism: clinical and experimental, 1995, Volume: 44, Issue:8

    Three groups of age- and weight-matched men (aged 40 to 70 years) without diabetes were studied: controls (n = 10), plasma triglycerides (TG) less than 180 mg/dL and no cardiovascular disease (CVD); HTG-CVD (n = 11), hypertriglyceridemic (HTG) (TG > 240 mg/dL) without CVD; and HTG+CVD (n = 10), HTG (TG > 240 mg/dL) with documented CVD. HTG+CVD subjects had higher fasting and post-oral glucose tolerance test insulin levels than the other two groups, respectively. Very-low-density lipoprotein (VLDL)+chylomicrons (CMs), intermediate-density lipoprotein (IDL), low-density lipoprotein (LDL), and three high-density lipoprotein (HDL) subfractions (HDL-L, HDL-M, and HDL-D, from least to most dense) were isolated by gradient ultracentrifugation. Fasting lipoproteins were similar in HTG groups, except for higher VLDL lipid to apolipoprotein (apo) B ratios (P < .04) in the HTG+CVD group. Subjects were fed a high-fat mixed meal, and lipoprotein composition was determined at 3, 6, 9, and 12 hours postprandially. Postprandial responses of the core lipids (TG and cholesterol esters [CE]) in all of the lipoprotein subfractions were similar in the two HTG groups at each time point. However, both controls and HTG-CVD subjects had increases in HDL-M phospholipid (PL) at 9 and 12 hours with no change in HDL-D PL. The HTG+CVD group, on the other hand, had no increase in HDL-M PL and had a substantial reduction in HDL-D PL. These changes resulted in significant increases in HDL-M and HDL-D PL to apo A-I ratios in both controls and HTG-CVD subjects between 6 and 12 hours, whereas there was no increase seen in the HTG+CVD group. The HTG-CVD group also had a significantly greater increase in the VLDL+CM PL to apo B ratio (P = .038) at 3 hours than the HTG+CVD group. This diminished amount of surface lipid per VLDL particle may account for the late decrease in the HDL-D PL to apo A-I ratio seen in HTG+CVD patients. There were no other postprandial lipid or apolipoprotein differences between the two HTG groups. We conclude therefore that the major postprandial lipoprotein abnormality in these HTG+CVD patients was a failure to increase the PL content per particle in VLDL+CM, HDL-M, and HDL-D. This abnormality could prevent the usual increase in reverse cholesterol transport seen in postprandial plasma and therefore contribute to their increased incidence of CVD. The greater insulin resistance seen in these patients also appears to contribute significantly to their CVD.

    Topics: Adult; Aged; Alcohol Drinking; Apolipoprotein A-I; Blood Glucose; Cardiovascular Diseases; Case-Control Studies; Cholesterol Esters; Diet; Diterpenes; Eating; Glucose Tolerance Test; Humans; Hypertriglyceridemia; Lipoproteins; Lipoproteins, HDL; Lipoproteins, LDL; Liver; Male; Middle Aged; Phospholipids; Receptor, Insulin; Retinyl Esters; Time Factors; Vitamin A

1995