palmitic acid has been researched along with Atherogenesis in 32 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 |
|---|---|---|
| "The development of atherosclerosis is closely related to excessive endoplasmic reticulum stress (ERs)." | 5.43 | Equol Attenuates Atherosclerosis in Apolipoprotein E-Deficient Mice by Inhibiting Endoplasmic Reticulum Stress via Activation of Nrf2 in Endothelial Cells. ( Hu, Q; Mi, M; Qin, L; Shi, L; Zhang, Q; Zhang, T, 2016) |
| "These results suggest that elevated level of palmitic acid may contribute to development of atherosclerosis through enhanced uptake of oxLDL via upregulation of LOX-1 in macrophages." | 3.76 | Palmitic acid enhances lectin-like oxidized LDL receptor (LOX-1) expression and promotes uptake of oxidized LDL in macrophage cells. ( Ishiyama, J; Murakami, K; Taguchi, R; Yamamoto, A, 2010) |
| "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) |
| "The development of atherosclerosis is closely related to excessive endoplasmic reticulum stress (ERs)." | 1.43 | Equol Attenuates Atherosclerosis in Apolipoprotein E-Deficient Mice by Inhibiting Endoplasmic Reticulum Stress via Activation of Nrf2 in Endothelial Cells. ( Hu, Q; Mi, M; Qin, L; Shi, L; Zhang, Q; Zhang, T, 2016) |
| "Insulin sensitivity was assessed by the minimal model analysis." | 1.36 | Downregulation of the longevity-associated protein sirtuin 1 in insulin resistance and metabolic syndrome: potential biochemical mechanisms. ( Avogaro, A; Bortoluzzi, A; Ceolotto, G; Cobelli, C; Dalla Man, C; de Kreutzenberg, SV; Fadini, GP; Papparella, I; Semplicini, A, 2010) |
| Timeframe | Studies, this research(%) | All Research% |
|---|---|---|
| pre-1990 | 0 (0.00) | 18.7374 |
| 1990's | 0 (0.00) | 18.2507 |
| 2000's | 3 (9.38) | 29.6817 |
| 2010's | 23 (71.88) | 24.3611 |
| 2020's | 6 (18.75) | 2.80 |
| Authors | Studies |
|---|---|
| Luo, R | 1 |
| Zhao, L | 1 |
| Li, S | 2 |
| Chen, P | 1 |
| Yu, H | 1 |
| Cai, K | 1 |
| Yu, Q | 1 |
| Tian, W | 2 |
| Wang, M | 2 |
| Liu, F | 2 |
| Fang, B | 1 |
| Huo, Q | 1 |
| Yang, Y | 1 |
| Liu, Q | 1 |
| Cheng, Z | 1 |
| Huang, B | 1 |
| Luo, S | 1 |
| Guo, Y | 1 |
| Zhan, W | 1 |
| Zhang, W | 1 |
| Tian, H | 1 |
| Sun, T | 1 |
| Lee, J | 1 |
| Yoo, JH | 1 |
| Kim, HS | 1 |
| Cho, YK | 1 |
| Lee, Y | 1 |
| Lee, WJ | 1 |
| Park, JY | 1 |
| Jung, CH | 1 |
| Mills, CE | 1 |
| Harding, SV | 1 |
| Bapir, M | 1 |
| Mandalari, G | 1 |
| Salt, LJ | 1 |
| Gray, R | 1 |
| Fielding, BA | 1 |
| Wilde, PJ | 1 |
| Hall, WL | 1 |
| Berry, SE | 1 |
| Lu, Z | 1 |
| Li, Y | 2 |
| Brinson, CW | 1 |
| Lopes-Virella, MF | 1 |
| Huang, Y | 1 |
| Karbasforush, S | 1 |
| Nourazarian, A | 2 |
| Darabi, M | 1 |
| Rahbarghazi, R | 2 |
| Khaki-Khatibi, F | 2 |
| Biray Avci, Ç | 1 |
| Salimi, L | 1 |
| Goker Bagca, B | 1 |
| Novin Bahador, T | 1 |
| Rezabakhsh, A | 1 |
| Khaksar, M | 1 |
| Novinbahador, T | 1 |
| Asgharzadeh, M | 1 |
| Avci, ÇB | 1 |
| Bagca, BG | 1 |
| Ozates, NP | 1 |
| Karbasforoush, S | 1 |
| Kutryb-Zajac, B | 1 |
| Koszalka, P | 1 |
| Slominska, EM | 1 |
| Smolenski, RT | 1 |
| Namgaladze, D | 1 |
| Kemmerer, M | 1 |
| von Knethen, A | 1 |
| Brüne, B | 1 |
| Titov, VN | 2 |
| Vostrov, IA | 1 |
| Kaba, SI | 1 |
| Ameliushkina, VA | 1 |
| Shiriaeva, IuK | 2 |
| Song, Y | 1 |
| Zhang, LJ | 1 |
| Li, H | 1 |
| Gu, Y | 1 |
| Li, FF | 1 |
| Jiang, LN | 1 |
| Ye, J | 1 |
| Li, Q | 1 |
| Zhao, Y | 1 |
| Feng, G | 1 |
| Wang, Y | 1 |
| Yue, Y | 1 |
| Zhao, W | 1 |
| Perdomo, L | 1 |
| Beneit, N | 1 |
| Otero, YF | 1 |
| Escribano, Ó | 1 |
| Díaz-Castroverde, S | 1 |
| Gómez-Hernández, A | 1 |
| Benito, M | 1 |
| Qiu, L | 1 |
| Xu, R | 1 |
| Wang, S | 1 |
| Sheng, H | 1 |
| Wu, J | 1 |
| Qu, Y | 1 |
| Reddy, MA | 1 |
| Das, S | 1 |
| Zhuo, C | 1 |
| Jin, W | 1 |
| Lanting, L | 1 |
| Natarajan, R | 1 |
| Liu, Y | 1 |
| Tian, X | 1 |
| Liu, D | 1 |
| Liu, M | 1 |
| Zhang, X | 1 |
| Zhang, Q | 2 |
| Yan, C | 1 |
| Han, Y | 1 |
| Afonso, MS | 1 |
| Lavrador, MS | 1 |
| Koike, MK | 1 |
| Cintra, DE | 1 |
| Ferreira, FD | 1 |
| Nunes, VS | 1 |
| Castilho, G | 1 |
| Gioielli, LA | 1 |
| Paula Bombo, R | 1 |
| Catanozi, S | 1 |
| Caldini, EG | 1 |
| Damaceno-Rodrigues, NR | 1 |
| Passarelli, M | 1 |
| Nakandakare, ER | 1 |
| Lottenberg, AM | 1 |
| Slusher, AL | 1 |
| Mischo, AB | 1 |
| Acevedo, EO | 1 |
| Zhang, T | 1 |
| Hu, Q | 1 |
| Shi, L | 1 |
| Qin, L | 1 |
| Mi, M | 1 |
| Ishiyama, J | 1 |
| Taguchi, R | 1 |
| Yamamoto, A | 1 |
| Murakami, K | 1 |
| de Kreutzenberg, SV | 1 |
| Ceolotto, G | 1 |
| Papparella, I | 1 |
| Bortoluzzi, A | 1 |
| Semplicini, A | 1 |
| Dalla Man, C | 1 |
| Cobelli, C | 1 |
| Fadini, GP | 1 |
| Avogaro, A | 1 |
| Song, J | 1 |
| Ren, P | 1 |
| Zhang, L | 1 |
| Wang, XL | 1 |
| Chen, L | 1 |
| Shen, YH | 1 |
| Cho, KH | 1 |
| Hong, JH | 1 |
| Lee, KT | 1 |
| Karaman, IuK | 1 |
| Novgorodtseva, TP | 1 |
| Kantur, TA | 1 |
| Antoniuk, MV | 1 |
| Zhukova, NV | 1 |
| Krylin, VV | 1 |
| Gao, D | 1 |
| Pararasa, C | 1 |
| Dunston, CR | 1 |
| Bailey, CJ | 1 |
| Griffiths, HR | 1 |
| Lamers, D | 1 |
| Schlich, R | 1 |
| Horrighs, A | 1 |
| Cramer, A | 1 |
| Sell, H | 1 |
| Eckel, J | 1 |
| Mattern, HM | 1 |
| Hardin, CD | 1 |
| Malmberg, P | 1 |
| Börner, K | 1 |
| Chen, Y | 1 |
| Friberg, P | 1 |
| Hagenhoff, B | 1 |
| Månsson, JE | 1 |
| Nygren, H | 1 |
| Braam, B | 1 |
| Verhaar, MC | 1 |
3 reviews available for palmitic acid and Atherogenesis
| Article | Year |
|---|---|
[Low and very low density lipoproteins: pathogenetic and clinical significance].
Topics: Atherosclerosis; Humans; Lipoproteins, LDL; Lipoproteins, VLDL; Metabolic Syndrome; Palmitic Acid | 2013 |
[Prevention of atherosclerosis. Excess of palmitic acid in food--a cause of hypercholesterolemia, inflammatory syndrome, insulin resistance in myocytes, and apoptosis].
Topics: Apoptosis; Atherosclerosis; Dietary Fats; Humans; Hypercholesterolemia; Inflammation; Insulin Resist | 2011 |
Understanding eNOS for pharmacological modulation of endothelial function: a translational view.
Topics: Animals; Atherosclerosis; Cardiovascular Agents; Cardiovascular Diseases; Endothelium, Vascular; Gen | 2007 |
1 trial available for palmitic acid and Atherogenesis
| 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 |
28 other studies available for palmitic acid and Atherogenesis
| Article | Year |
|---|---|
Curcumin Alleviates Palmitic Acid-Induced LOX-1 Upregulation by Suppressing Endoplasmic Reticulum Stress in HUVECs.
Topics: Anti-Inflammatory Agents, Non-Steroidal; Atherosclerosis; Cell Survival; Cells, Cultured; Curcumin; | 2021 |
Proteome-scale profiling reveals MAFF and MAFG as two novel key transcription factors involved in palmitic acid-induced umbilical vein endothelial cell apoptosis.
Topics: Apoptosis; Atherosclerosis; Cells, Cultured; Chromatography, Liquid; Gene Expression Regulation; Hum | 2021 |
Palmitic acid promotes endothelial-to-mesenchymal transition via activation of the cytosolic DNA-sensing cGAS-STING pathway.
Topics: Atherosclerosis; DNA, Mitochondrial; Endothelial Cells; Humans; Interferons; Membrane Proteins; Nucl | 2022 |
ANGPTL4 attenuates palmitic acid-induced endothelial cell injury by increasing autophagy.
Topics: Angiopoietin-Like Protein 4; Animals; Atherosclerosis; Autophagy; Endothelial Cells; Mice; Palmitic | 2022 |
C1q/TNF-related protein-9 attenuates palmitic acid-induced endothelial cell senescence via increasing autophagy.
Topics: Adiponectin; AMP-Activated Protein Kinases; Atherosclerosis; Autophagosomes; Autophagy; Cellular Sen | 2021 |
Cooperative stimulation of atherogenesis by lipopolysaccharide and palmitic acid-rich high fat diet in low-density lipoprotein receptor-deficient mice.
Topics: Animals; Atherosclerosis; Diet, High-Fat; Fatty Acids; Lipopolysaccharides; Male; Mice; Palmitic Aci | 2017 |
Docosahexaenoic acid reversed atherosclerotic changes in human endothelial cells induced by palmitic acid in vitro.
Topics: Atherosclerosis; Cell Survival; Cells, Cultured; Docosahexaenoic Acids; Dose-Response Relationship, | 2018 |
Docosahexaenoic acid attenuates the detrimental effect of palmitic acid on human endothelial cells by modulating genes from the atherosclerosis signaling pathway.
Topics: Apoptosis; Atherosclerosis; Cell Survival; Docosahexaenoic Acids; Gene Expression Regulation; Granul | 2018 |
The effects of pro- and anti-atherosclerotic factors on intracellular nucleotide concentration in murine endothelial cells.
Topics: Adenosine Triphosphate; Animals; Atherosclerosis; Atorvastatin; Blood Vessels; Cell Line; Cytokines; | 2018 |
AICAR inhibits PPARγ during monocyte differentiation to attenuate inflammatory responses to atherogenic lipids.
Topics: Aminoimidazole Carboxamide; AMP-Activated Protein Kinases; Anti-Inflammatory Agents; Atherosclerosis | 2013 |
Polyunsaturated fatty acid relatively decreases cholesterol content in THP-1 macrophage-derived foam cell: partly correlates with expression profile of CIDE and PAT members.
Topics: Acyltransferases; Apoptosis Regulatory Proteins; Atherosclerosis; Cell Line; Cell Survival; Choleste | 2013 |
A key mediator, PTX3, of IKK/IκB/NF-κB exacerbates human umbilical vein endothelial cell injury and dysfunction.
Topics: Apoptosis; Atherosclerosis; C-Reactive Protein; Cell Survival; Human Umbilical Vein Endothelial Cell | 2014 |
Protective role of oleic acid against cardiovascular insulin resistance and in the early and late cellular atherosclerotic process.
Topics: Angiotensin II; Animals; Apoptosis; Atherosclerosis; Blotting, Western; Cell Line; Cell Proliferatio | 2015 |
Honokiol ameliorates endothelial dysfunction through suppression of PTX3 expression, a key mediator of IKK/IκB/NF-κB, in atherosclerotic cell model.
Topics: Apoptosis; Atherosclerosis; Biphenyl Compounds; C-Reactive Protein; Down-Regulation; Drugs, Chinese | 2015 |
Regulation of Vascular Smooth Muscle Cell Dysfunction Under Diabetic Conditions by miR-504.
Topics: Animals; Aorta, Thoracic; Aortic Diseases; Atherosclerosis; Cell Movement; Cell Proliferation; Cells | 2016 |
Up-Regulation of CREG Expression by the Transcription Factor GATA1 Inhibits High Glucose- and High Palmitate-Induced Apoptosis in Human Umbilical Vein Endothelial Cells.
Topics: Apoptosis; Atherosclerosis; Base Sequence; Diabetes Mellitus; Dose-Response Relationship, Drug; GATA | 2016 |
Dietary interesterified fat enriched with palmitic acid induces atherosclerosis by impairing macrophage cholesterol efflux and eliciting inflammation.
Topics: Animals; Aorta; Atherosclerosis; Biomarkers; Cholesterol; Cytokines; Diet, High-Fat; Endothelium, Va | 2016 |
Pentraxin 3 is an anti-inflammatory protein associated with lipid-induced interleukin 10 in vitro.
Topics: Adult; Atherosclerosis; C-Reactive Protein; Cells, Cultured; Cytokines; Humans; Inflammation; Interl | 2016 |
Equol Attenuates Atherosclerosis in Apolipoprotein E-Deficient Mice by Inhibiting Endoplasmic Reticulum Stress via Activation of Nrf2 in Endothelial Cells.
Topics: Activating Transcription Factor 6; Animals; Aorta; Apolipoproteins E; Apoptosis; Atherosclerosis; Ch | 2016 |
Palmitic acid enhances lectin-like oxidized LDL receptor (LOX-1) expression and promotes uptake of oxidized LDL in macrophage cells.
Topics: Animals; Atherosclerosis; Cell Line, Tumor; Down-Regulation; Humans; Interleukin-1 Receptor-Associat | 2010 |
Downregulation of the longevity-associated protein sirtuin 1 in insulin resistance and metabolic syndrome: potential biochemical mechanisms.
Topics: Angiogenesis Inhibitors; Atherosclerosis; Carotid Arteries; Down-Regulation; Glucose; Glucose Tolera | 2010 |
Metformin reduces lipid accumulation in macrophages by inhibiting FOXO1-mediated transcription of fatty acid-binding protein 4.
Topics: Atherosclerosis; Carnitine O-Palmitoyltransferase; Cell Line, Tumor; Down-Regulation; Fatty Acid-Bin | 2010 |
Monoacylglycerol (MAG)-oleic acid has stronger antioxidant, anti-atherosclerotic, and protein glycation inhibitory activities than MAG-palmitic acid.
Topics: Antioxidants; Apolipoproteins; Aryldialkylphosphatase; Atherosclerosis; Cell Line; Cholesterol, LDL; | 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 |
Palmitate promotes monocyte atherogenicity via de novo ceramide synthesis.
Topics: Animals; Aorta; Atherosclerosis; CD11b Antigen; CD36 Antigens; Cell Adhesion; Cell Line; Cell Prolif | 2012 |
Differential impact of oleate, palmitate, and adipokines on expression of NF-κB target genes in human vascular smooth muscle cells.
Topics: Activins; Adipocytes; Adipokines; Angiopoietins; Apoptosis Regulatory Proteins; Atherosclerosis; Cel | 2012 |
Vascular metabolic dysfunction and lipotoxicity.
Topics: Albumins; Animals; Aorta; Apoptosis; Atherosclerosis; Boron Compounds; Carotid Arteries; Cell Line; | 2007 |
Localization of lipids in the aortic wall with imaging TOF-SIMS.
Topics: Animals; Aorta; Atherosclerosis; Cholesterol; Fatty Acids, Monounsaturated; Freeze Drying; Humans; L | 2007 |