palmitic acid has been researched along with Hyperlipemia in 40 studies
Palmitic Acid: A common saturated fatty acid found in fats and waxes including olive oil, palm oil, and body lipids.
hexadecanoic acid : A straight-chain, sixteen-carbon, saturated long-chain fatty acid.
| Excerpt | Relevance | Reference |
|---|---|---|
| "However, the effects on postprandial lipemia and glycemia are less clear." | 7.01 | Effects of two consecutive mixed meals high in palmitic acid or stearic acid on 8-h postprandial lipemia and glycemia in healthy-weight and overweight men and postmenopausal women: a randomized controlled trial. ( Blom, WAM; Mensink, RP; Plat, J; van Rooijen, MA; Zock, PL, 2021) |
| "The aging rats showed hyperinsulinemia and hyperlipidemia, and insulin resistance as examined by the decreased glucose decay constant rate during insulin tolerance test (kITT)." | 5.39 | Genipin ameliorates age-related insulin resistance through inhibiting hepatic oxidative stress and mitochondrial dysfunction. ( Cai, L; Feng, H; Gong, D; Guan, L; Wu, Q; Yang, M; Yuan, B; Zhao, J; Zhao, X; Zou, Y, 2013) |
| "Despite the lower lipemia following the SFA-rich fats, increased proatherogenic large triacylglycerol-rich lipoprotein remnant and small LDL particles following the SFA-rich fats relative to RO adds a new postprandial dimension to the mechanistic evidence linking SFAs to cardiovascular disease risk." | 3.01 | Palmitic acid-rich oils with and without interesterification lower postprandial lipemia and increase atherogenic lipoproteins compared with a MUFA-rich oil: A randomized controlled trial. ( Bapir, M; Berry, SE; Fielding, BA; Gray, R; Hall, WL; Harding, SV; Mandalari, G; Mills, CE; Salt, LJ; Wilde, PJ, 2021) |
| "However, the effects on postprandial lipemia and glycemia are less clear." | 3.01 | Effects of two consecutive mixed meals high in palmitic acid or stearic acid on 8-h postprandial lipemia and glycemia in healthy-weight and overweight men and postmenopausal women: a randomized controlled trial. ( Blom, WAM; Mensink, RP; Plat, J; van Rooijen, MA; Zock, PL, 2021) |
| "The role of Angptl4 in hyperlipidemia-induced glomerular disease and the detailed underlying mechanisms are unclear." | 1.91 | Dysregulation of Angiopoietin-like-4 Associated with Hyperlipidemia-induced Renal Injury by AMPK/ACC Pathway. ( Huang, L; Li, Y; Liu, Q; Lv, Y; Qiu, W, 2023) |
| "It is known that hyperlipidemia leads to cardiovascular injury, therefore anti-vascular endothelial cell injury (AVECI) may be an underlying molecular mechanism of WDD in the cure of hyperlipidemia." | 1.91 | Screening of Active Ingredients from Wendan Decoction in Alleviating Palmitic Acid-Induced Endothelial Cell Injury. ( Cai, M; Guo, X; Ijaz, M; Ma, L; Shahbaz, M; Shi, H; Wang, P; Xu, N, 2023) |
| "Together, our results suggest that hyperlipidemia drives lymphatic vessel remodeling and T cell migration toward lymphatic endothelial cells." | 1.56 | Lymphatic endothelial cells promote T lymphocyte migration into lymph nodes under hyperlipidemic conditions. ( Cho, KA; Kim, YH; Lee, KH; Park, M; Woo, SY, 2020) |
| "Subjects with hyperlipidemia (n=22) and age-matched healthy controls (n=19) were included in this study." | 1.51 | Gamma-glutamyl carboxylated Gas6 mediates the beneficial effect of vitamin K on lowering hyperlipidemia via regulating the AMPK/SREBP1/PPARα signaling cascade of lipid metabolism. ( Bora, T; Bordoloi, J; Kalita, J; Manna, P; Ozah, D, 2019) |
| "The effect of hyperlipidemia on hepatic HPS expression was evaluated in primary hepatocytes and liver of mice." | 1.48 | Hyperlipidemia-induced hepassocin in the liver contributes to insulin resistance in skeletal muscle. ( Abd El-Aty, AM; Chung, YH; Jeong, JH; Jung, TW; Kim, HC, 2018) |
| "Palmitic acid (PA)-treated H9c2 cardiomyoblasts and neonatal rat ventricle cardiomyocytes were used to simulate hyperlipidemia model, which suppress cluster of differentiation 36 (CD36) and activate glucose transporter type 4 (GLUT4)." | 1.48 | Acute hypoxic preconditioning prevents palmitic acid-induced cardiomyocyte apoptosis via switching metabolic GLUT4-glucose pathway back to CD36-fatty acid dependent. ( Baskaran, R; Chen, RJ; Chen, YP; Day, CH; Ho, TJ; Huang, CY; Kuo, CH; Kuo, WW; Padma, VV; Wen, SY, 2018) |
| "The aging rats showed hyperinsulinemia and hyperlipidemia, and insulin resistance as examined by the decreased glucose decay constant rate during insulin tolerance test (kITT)." | 1.39 | Genipin ameliorates age-related insulin resistance through inhibiting hepatic oxidative stress and mitochondrial dysfunction. ( Cai, L; Feng, H; Gong, D; Guan, L; Wu, Q; Yang, M; Yuan, B; Zhao, J; Zhao, X; Zou, Y, 2013) |
| Timeframe | Studies, this research(%) | All Research% |
|---|---|---|
| pre-1990 | 9 (22.50) | 18.7374 |
| 1990's | 3 (7.50) | 18.2507 |
| 2000's | 3 (7.50) | 29.6817 |
| 2010's | 18 (45.00) | 24.3611 |
| 2020's | 7 (17.50) | 2.80 |
| Authors | Studies |
|---|---|
| Quan, X | 1 |
| Guo, Q | 1 |
| Li, X | 5 |
| Liang, Y | 1 |
| Cui, M | 1 |
| Li, J | 1 |
| Huang, S | 1 |
| Wang, J | 4 |
| Li, B | 1 |
| Chen, Z | 2 |
| Sun, X | 2 |
| Liu, N | 2 |
| Qiu, W | 1 |
| Huang, L | 1 |
| Li, Y | 2 |
| Liu, Q | 1 |
| Lv, Y | 1 |
| Xu, N | 1 |
| Ijaz, M | 1 |
| Shi, H | 1 |
| Shahbaz, M | 1 |
| Cai, M | 1 |
| Wang, P | 1 |
| Guo, X | 1 |
| Ma, L | 1 |
| Park, M | 1 |
| Cho, KA | 1 |
| Kim, YH | 1 |
| Lee, KH | 1 |
| Woo, SY | 1 |
| Mills, CE | 1 |
| Harding, SV | 1 |
| Bapir, M | 1 |
| Mandalari, G | 1 |
| Salt, LJ | 1 |
| Gray, R | 2 |
| Fielding, BA | 1 |
| Wilde, PJ | 1 |
| Hall, WL | 2 |
| Berry, SE | 3 |
| van Rooijen, MA | 1 |
| Plat, J | 1 |
| Zock, PL | 1 |
| Blom, WAM | 1 |
| Mensink, RP | 3 |
| Jung, TW | 2 |
| Chung, YH | 1 |
| Kim, HC | 2 |
| Abd El-Aty, AM | 2 |
| Jeong, JH | 2 |
| Chen, X | 1 |
| Yu, W | 1 |
| Li, W | 2 |
| Zhang, H | 1 |
| Huang, W | 1 |
| Zhu, W | 1 |
| Fang, Q | 2 |
| Chen, C | 1 |
| Liang, G | 2 |
| Chen, YP | 1 |
| Kuo, WW | 1 |
| Baskaran, R | 1 |
| Day, CH | 1 |
| Chen, RJ | 1 |
| Wen, SY | 1 |
| Ho, TJ | 1 |
| Padma, VV | 1 |
| Kuo, CH | 1 |
| Huang, CY | 1 |
| Alfieri, A | 1 |
| Imperlini, E | 1 |
| Nigro, E | 1 |
| Vitucci, D | 1 |
| Orrù, S | 1 |
| Daniele, A | 1 |
| Buono, P | 1 |
| Mancini, A | 1 |
| Lee, SH | 1 |
| Bang, JS | 1 |
| Hacımüftüoğlu, A | 1 |
| Shin, YK | 1 |
| Bordoloi, J | 1 |
| Ozah, D | 1 |
| Bora, T | 1 |
| Kalita, J | 1 |
| Manna, P | 1 |
| Guan, L | 1 |
| Feng, H | 1 |
| Gong, D | 1 |
| Zhao, X | 1 |
| Cai, L | 1 |
| Wu, Q | 1 |
| Yuan, B | 1 |
| Yang, M | 1 |
| Zhao, J | 1 |
| Zou, Y | 1 |
| Zhou, L | 1 |
| Cai, X | 1 |
| Han, X | 1 |
| Ji, L | 1 |
| Zhong, P | 1 |
| Chen, L | 2 |
| Wang, L | 1 |
| Zhang, Y | 1 |
| Wang, Y | 1 |
| Li, N | 1 |
| Zhao, Y | 1 |
| Yue, Y | 1 |
| Yao, Z | 1 |
| Niu, W | 1 |
| Iqbal, S | 1 |
| Li, H | 1 |
| Berry, SEE | 1 |
| Lim, JC | 1 |
| Lim, SK | 1 |
| Han, HJ | 1 |
| Park, SH | 1 |
| Karaman, IuK | 1 |
| Novgorodtseva, TP | 1 |
| Kantur, TA | 1 |
| Antoniuk, MV | 1 |
| Zhukova, NV | 1 |
| Padilla, A | 1 |
| Descorbeth, M | 1 |
| Almeyda, AL | 1 |
| Payne, K | 1 |
| De Leon, M | 1 |
| Sanders, TA | 1 |
| Filippou, A | 1 |
| Baumgartner, S | 1 |
| Karupaiah, T | 1 |
| Tan, CH | 1 |
| Chinna, K | 1 |
| Sundram, K | 1 |
| Khosla, P | 1 |
| Hayes, KC | 1 |
| Chu, X | 1 |
| Liu, L | 1 |
| Na, L | 1 |
| Lu, H | 1 |
| Li, S | 1 |
| Sun, C | 1 |
| ELKO, EE | 1 |
| WOOLES, WR | 1 |
| DILUZIO, NR | 1 |
| FUHRMANN, W | 1 |
| SACHS, BA | 1 |
| WOLFMAN, L | 1 |
| PINTER, KG | 1 |
| HAMILTON, JG | 1 |
| MILLER, ON | 1 |
| NESTEL, PJ | 1 |
| Moore, WT | 1 |
| Tidwell, HC | 1 |
| Mcpherson, JC | 1 |
| OGINO, K | 1 |
| DOI, H | 1 |
| OKAMOTO, H | 1 |
| LOUHIJA, A | 1 |
| Titov, VN | 1 |
| Arapbaeva, AA | 1 |
| Kukharchuk, VV | 1 |
| Balakina, MV | 1 |
| Tishinin, MA | 1 |
| Ameliushkina, VA | 1 |
| Oosthuizen, W | 1 |
| Vorster, HH | 1 |
| Vermaak, WJ | 1 |
| Smuts, CM | 1 |
| Jerling, JC | 1 |
| Veldman, FJ | 1 |
| Burger, HM | 1 |
| Lagrost, L | 1 |
| Guyard-Dangremont, V | 1 |
| Temme, EH | 1 |
| Desrumaux, C | 1 |
| Athias, A | 1 |
| Hornstra, G | 1 |
| Gambert, P | 1 |
| Clandinin, MT | 1 |
| Cook, SL | 1 |
| Konrad, SD | 1 |
| Goh, YK | 1 |
| French, MA | 1 |
| Koopmans, SJ | 1 |
| Jong, MC | 1 |
| Que, I | 1 |
| Dahlmans, VE | 1 |
| Pijl, H | 1 |
| Radder, JK | 1 |
| Frölich, M | 1 |
| Havekes, LM | 1 |
| Trial | Phase | Enrollment | Study Type | Start Date | Status | ||
|---|---|---|---|---|---|---|---|
| Effects of C16:0 Versus C18:0 on HDL Metabolism and Other Cardiometabolic Risk Markers: A Dietary Intervention Study in Healthy Normal-weight and Overweight Subjects[NCT02835651] | 41 participants (Actual) | Interventional | 2016-04-14 | Completed | |||
| The Acute Effects of Interesterification of Commercially Used Fats on Postprandial Lipaemia and Satiety: a Randomised Controlled Trial. The INTER-FAT Study[NCT02365987] | 12 participants (Actual) | Interventional | 2015-02-28 | Completed | |||
| [NCT01710280] | 11 participants (Actual) | Interventional | 2011-05-31 | Completed | |||
| Comparison of the Effect of Medium-Chain Fatty Acids and Long-Chain Fatty Acids on Postprandial Appetite and Lipemia[NCT05539742] | 26 participants (Actual) | Interventional | 2022-06-01 | Completed | |||
| [information is prepared from clinicaltrials.gov, extracted Sep-2024] | |||||||
2 reviews available for palmitic acid and Hyperlipemia
| Article | Year |
|---|---|
Effects of Plant Oil Interesterified Triacylglycerols on Lipemia and Human Health.
Topics: Dietary Fats; Fatty Acids; Humans; Hyperlipidemias; Palmitic Acid; Plant Oils; Stearic Acids; Stereo | 2017 |
Triacylglycerol structure and interesterification of palmitic and stearic acid-rich fats: an overview and implications for cardiovascular disease.
Topics: Adult; Animals; Coronary Disease; Diet, Atherogenic; Dietary Fats; Esterification; Humans; Hyperlipi | 2009 |
8 trials available for palmitic acid and Hyperlipemia
| Article | Year |
|---|---|
Palmitic acid-rich oils with and without interesterification lower postprandial lipemia and increase atherogenic lipoproteins compared with a MUFA-rich oil: A randomized controlled trial.
Topics: Aged; Apolipoprotein B-48; Atherosclerosis; Chylomicrons; Cross-Over Studies; Dietary Fats, Unsatura | 2021 |
Effects of two consecutive mixed meals high in palmitic acid or stearic acid on 8-h postprandial lipemia and glycemia in healthy-weight and overweight men and postmenopausal women: a randomized controlled trial.
Topics: Blood Glucose; Cross-Over Studies; Dietary Fats; Female; Humans; Hyperlipidemias; Male; Meals; Overw | 2021 |
Modulation of postprandial lipaemia by a single meal containing a commonly consumed interesterified palmitic acid-rich fat blend compared to a non-interesterified equivalent.
Topics: Adolescent; Adult; Blood Glucose; Cholesterol; Cross-Over Studies; Diet; Diet, High-Fat; Dietary Fat | 2017 |
Palmitic acid in the sn-2 position of triacylglycerols acutely influences postprandial lipid metabolism.
Topics: Adolescent; Adult; Apolipoproteins B; Area Under Curve; Arecaceae; Cross-Over Studies; Cytokines; Di | 2011 |
The chain length of dietary saturated fatty acids affects human postprandial lipemia.
Topics: Adult; Cardiovascular Diseases; Cholesterol, HDL; Cholesterol, LDL; Coconut Oil; Corn Oil; Cross-Ove | 2011 |
Lecithin has no effect on serum lipoprotein, plasma fibrinogen and macro molecular protein complex levels in hyperlipidaemic men in a double-blind controlled study.
Topics: Adult; Apolipoproteins B; Blood Proteins; Cholesterol; Double-Blind Method; Fibrinogen; Glycine max; | 1998 |
Variations in serum cholesteryl ester transfer and phospholipid transfer activities in healthy women and men consuming diets enriched in lauric, palmitic or oleic acids.
Topics: Adult; Carrier Proteins; Cholesterol Ester Transfer Proteins; Cholesterol Esters; Cholesterol, HDL; | 1999 |
The effect of palmitic acid on lipoprotein cholesterol levels and endogenous cholesterol synthesis in hyperlipidemic subjects.
Topics: Cholesterol; Cholesterol, HDL; Cholesterol, LDL; Dietary Fats; Dietary Fats, Unsaturated; Female; Hu | 1999 |
30 other studies available for palmitic acid and Hyperlipemia
| Article | Year |
|---|---|
Malus toringoides (Rehd.) Hughes improves glucose and lipid metabolism and liver injury in high fructose-induced mice.
Topics: Animals; Fructose; Glucose; Hyperlipidemias; Hypertension; Insulin Resistance; Lipid Metabolism; Liv | 2022 |
Oleoylethanolamide alleviates hyperlipidaemia-mediated vascular calcification via attenuating mitochondrial DNA stress triggered autophagy-dependent ferroptosis by activating PPARα.
Topics: Animals; Autophagy; Calcium; DNA, Mitochondrial; Fatty Acids; Ferroptosis; Hyperlipidemias; Myocytes | 2023 |
Oleoylethanolamide alleviates hyperlipidaemia-mediated vascular calcification via attenuating mitochondrial DNA stress triggered autophagy-dependent ferroptosis by activating PPARα.
Topics: Animals; Autophagy; Calcium; DNA, Mitochondrial; Fatty Acids; Ferroptosis; Hyperlipidemias; Myocytes | 2023 |
Oleoylethanolamide alleviates hyperlipidaemia-mediated vascular calcification via attenuating mitochondrial DNA stress triggered autophagy-dependent ferroptosis by activating PPARα.
Topics: Animals; Autophagy; Calcium; DNA, Mitochondrial; Fatty Acids; Ferroptosis; Hyperlipidemias; Myocytes | 2023 |
Oleoylethanolamide alleviates hyperlipidaemia-mediated vascular calcification via attenuating mitochondrial DNA stress triggered autophagy-dependent ferroptosis by activating PPARα.
Topics: Animals; Autophagy; Calcium; DNA, Mitochondrial; Fatty Acids; Ferroptosis; Hyperlipidemias; Myocytes | 2023 |
Dysregulation of Angiopoietin-like-4 Associated with Hyperlipidemia-induced Renal Injury by AMPK/ACC Pathway.
Topics: AMP-Activated Protein Kinases; Angiopoietins; Animals; Humans; Hyperlipidemias; Kidney; Palmitic Aci | 2023 |
Screening of Active Ingredients from Wendan Decoction in Alleviating Palmitic Acid-Induced Endothelial Cell Injury.
Topics: Chromatography, Liquid; Drugs, Chinese Herbal; Human Umbilical Vein Endothelial Cells; Humans; Hyper | 2023 |
Lymphatic endothelial cells promote T lymphocyte migration into lymph nodes under hyperlipidemic conditions.
Topics: Animals; Cell Line; Cell Movement; Chemokines; Diet; Endothelial Cells; Heart Ventricles; Hyperlipid | 2020 |
Hyperlipidemia-induced hepassocin in the liver contributes to insulin resistance in skeletal muscle.
Topics: Animals; CCAAT-Enhancer-Binding Protein-beta; Endoplasmic Reticulum Stress; Enzyme Activation; ErbB | 2018 |
An anti-inflammatory chalcone derivative prevents heart and kidney from hyperlipidemia-induced injuries by attenuating inflammation.
Topics: Animals; Anti-Inflammatory Agents; Apolipoproteins E; Chalcones; Diet, High-Fat; Heart; Hyperlipidem | 2018 |
Acute hypoxic preconditioning prevents palmitic acid-induced cardiomyocyte apoptosis via switching metabolic GLUT4-glucose pathway back to CD36-fatty acid dependent.
Topics: Animals; Animals, Newborn; Apoptosis; CD36 Antigens; Cell Hypoxia; Cell Line; DNA-Binding Proteins; | 2018 |
METRNL attenuates lipid-induced inflammation and insulin resistance via AMPK or PPARδ-dependent pathways in skeletal muscle of mice.
Topics: AMP-Activated Protein Kinases; Animals; Cell Differentiation; Cell Line; Diet, High-Fat; Endoplasmic | 2018 |
Gamma-glutamyl carboxylated Gas6 mediates the beneficial effect of vitamin K on lowering hyperlipidemia via regulating the AMPK/SREBP1/PPARα signaling cascade of lipid metabolism.
Topics: AMP-Activated Protein Kinases; Animals; Cell Survival; Female; Hepatocytes; Homeostasis; Humans; Hyp | 2019 |
Genipin ameliorates age-related insulin resistance through inhibiting hepatic oxidative stress and mitochondrial dysfunction.
Topics: Adenosine Triphosphate; Age Factors; Aging; Animals; Antioxidants; Cell Line; Dose-Response Relation | 2013 |
P38 plays an important role in glucolipotoxicity-induced apoptosis in INS-1 cells.
Topics: Animals; Apoptosis; Caspase 3; Cell Line, Tumor; Enzyme Activation; Fatty Acids, Nonesterified; Hype | 2014 |
EGFR Inhibition Blocks Palmitic Acid-induced inflammation in cardiomyocytes and Prevents Hyperlipidemia-induced Cardiac Injury in Mice.
Topics: Animals; Apolipoproteins E; Apoptosis; Cardiovascular Diseases; Cell Line; Diet, High-Fat; ErbB Rece | 2016 |
Liraglutide ameliorates palmitate-induced endothelial dysfunction through activating AMPK and reversing leptin resistance.
Topics: AMP-Activated Protein Kinases; Endothelial Cells; Enzyme Activation; Human Umbilical Vein Endothelia | 2016 |
Cannabinoid receptor 1 mediates palmitic acid-induced apoptosis via endoplasmic reticulum stress in human renal proximal tubular cells.
Topics: Activating Transcription Factor 4; Apoptosis; bcl-2-Associated X Protein; Caspase 3; Cell Proliferat | 2010 |
[The role of modification of fatty acid composition of erythrocyte lipids in pathogenesis of arterial hypertension].
Topics: 8,11,14-Eicosatrienoic Acid; Arachidonic Acid; Atherosclerosis; Biological Transport, Active; Carbon | 2010 |
Hyperglycemia magnifies Schwann cell dysfunction and cell death triggered by PA-induced lipotoxicity.
Topics: Animals; Cell Death; Cells, Cultured; Diabetic Neuropathies; Endoplasmic Reticulum Chaperone BiP; Hu | 2011 |
Saturated fat and lipemia: importance of study design and triglyceride structure.
Topics: Cholesterol; Diet; Dietary Fats; Fatty Acids; Fatty Acids, Unsaturated; Female; Homocysteine; Humans | 2012 |
Sterol regulatory element-binding protein-1c mediates increase of postprandial stearic acid, a potential target for improving insulin resistance, in hyperlipidemia.
Topics: Acetyl-CoA Carboxylase; Acetyltransferases; Animals; Fatty Acid Elongases; Fatty Acid Synthases; Fem | 2013 |
[DIET IN DISORDERS OF LIPID METABOLISM].
Topics: Diabetes Mellitus; Diet; Diet Therapy; Fats, Unsaturated; Fatty Acids; Fatty Acids, Essential; Human | 1963 |
EFFECT OF WHOLE-BODY X-IRRADIATION ON PALMITATE-1-C14 METABOLISM IN THE RABBIT.
Topics: Albumins; Animals; Carbon Isotopes; Glycerides; Hyperlipidemias; Lipid Metabolism; Lipids; Liver; Pa | 1964 |
[STUDIES ON THE FATTY ACIDS OF PLASMA LIPIDS IN HEREDITARY CARBOHYDRATE-SENSITIVE HYPERLIPEMIA].
Topics: Adolescent; Carbohydrates; Child; Cholesterol; Fatty Acids; Fatty Acids, Essential; Genetics, Medica | 1964 |
THIN LAYER CHROMATOGRAPHY OF BLOOD LIPIDS.
Topics: Blood Chemical Analysis; Cholesterol; Chromatography; Chromatography, Thin Layer; Fatty Acids; Glyce | 1964 |
QUANTITATIVE DETERMINATION OF SERUM TRIGLYCERIDES BY GLASS-FIBER PAPER CHROMATOGRAPHY.
Topics: Biomedical Research; Blood Chemical Analysis; Chromatography; Chromatography, Paper; Colorimetry; Fa | 1964 |
METABOLISM OF LINOLEATE AND PALMITATE IN PATIENTS WITH HYPERTRIGLYCERIDEMIA AND HEART DISEASE.
Topics: Carbon Isotopes; Fatty Acids; Glycerides; Heart Diseases; Hyperlipidemias; Hypertriglyceridemia; Lin | 1965 |
THE FATE OF CHYLOMICRONS IN RATS TREATED WITH TRITON WR-1339.
Topics: Blood Chemical Analysis; Carbon Isotopes; Chylomicrons; Dietary Fats; Emulsions; Fatty Acids; Hyperl | 1965 |
CLINICAL STUDY ON LIPID METABOLISM. EFFECT OF GLUCOSE AND INSULIN ON NEFA METABOLISM.
Topics: Arteriosclerosis; Carbohydrate Metabolism; Carbon Isotopes; Diabetes Mellitus; Fatty Acids; Fatty Ac | 1965 |
METABOLIC STUDIES ON HAEMORRHAGIC LIPAEMIA IN THE RAT.
Topics: Adipose Tissue; Anemia; Blood Glucose; Body Weight; Carbon Isotopes; Cholesterol; Diet; Fatty Acids; | 1965 |
[Fibrate-induced changes in the serum lipid contents of individual C16 and C18 fatty acids in patients with hyperlipidemia].
Topics: Fatty Acids; Gemfibrozil; Humans; Hyperlipidemias; Hypolipidemic Agents; Linoleic Acid; Lipids; Olei | 2006 |
Hyperlipidaemia is associated with increased insulin-mediated glucose metabolism, reduced fatty acid metabolism and normal blood pressure in transgenic mice overexpressing human apolipoprotein C1.
Topics: Animals; Apolipoprotein C-I; Apolipoproteins C; Blood Glucose; Blood Pressure; Cholesterol; Fatty Ac | 2001 |