1.Lipid Accumulation and IL-6 Production in L02 Hepatocytes Induced by Sodium Oleate: Dose and Time Dependence.
Chen CHEN ; Jun Sheng HUO ; Qin ZHUO ; Yan LI ; Yan MA ; Jing Bo WANG ; Xu Dong JIA
Biomedical and Environmental Sciences 2021;34(12):998-1004
		                        		
		                        			
		                        			To explore interleukin-6 (IL-6) production and characterize lipid accumulation in L02 hepatocytes induced by sodium oleate. L02 hepatocytes were incubated with 0, 37.5, 75, 150, 300, 600, or 1,200 μmol/L sodium oleate for 24 h, and the supernatant was collected to detect the concentration of IL-6. L02 hepatocytes were incubated with 300, 150, 75, or 0 μmol/L sodium oleate for 0-24 h. The supernatant was collected for detection of IL-6 and free fatty acids. L02 hepatocytes treated with 300 μmol/L sodium oleate for 0-24 h were stained with Oil Red O. With extended sodium oleate incubation time, IL-6 levels increased, and free fatty acids decreased. After 24 h incubation, IL-6 levels increased as sodium oleate increased from 37.5 to 300 μmol/L (
		                        		
		                        		
		                        		
		                        			Dose-Response Relationship, Drug
		                        			;
		                        		
		                        			Hepatocytes/metabolism*
		                        			;
		                        		
		                        			Humans
		                        			;
		                        		
		                        			Interleukin-6/metabolism*
		                        			;
		                        		
		                        			Lipid Metabolism
		                        			;
		                        		
		                        			Oleic Acid/administration & dosage*
		                        			;
		                        		
		                        			Time Factors
		                        			
		                        		
		                        	
2.New observations on the effect of camellia oil on fatty liver disease in rats.
Journal of Zhejiang University. Science. B 2020;21(8):657-667
		                        		
		                        			
		                        			Camellia oil has become an important plant oil in China in recent years, but its effects on non-alcoholic fatty liver disease (NAFLD) have not been documented. In this study, the effects of camellia oil, soybean oil, and olive oil on NAFLD were evaluated by analyzing the fatty acid profiles of the plant oils, the serum lipids and lipoproteins of rats fed different oils, and by cytological and ultrastructural observation of the rats' hepatocytes. Analysis of fatty acid profiles showed that the polyunsaturated fatty acid (PUFA) n-6/n-3 ratio was 33.33 in camellia oil, 12.50 in olive oil, and 7.69 in soybean oil. Analyses of serum lipids and lipoproteins of rats showed that the levels of total cholesterol and low-density lipoprotein cholesterol in a camellia oil-fed group (COFG) were lower than those in an olive oil-fed group (OOFG) and higher than those in a soybean oil-fed group (SOFG). However, only the difference in total cholesterol between the COFG and SOFG was statistically significant. Cytological observation showed that the degree of lipid droplet (LD) accumulation in the hepatocytes in the COFG was lower than that in the OOFG, but higher than that in the SOFG. Ultrastructural analysis revealed that the size and number of the LDs in the hepatocytes of rats fed each of the three types of oil were related to the degree of damage to organelles, including the positions of nuclei and the integrity of mitochondria and endoplasmic reticulum. The results revealed that the effect of camellia oil on NAFLD in rats was greater than that of soybean oil, but less than that of olive oil. Although the overall trend was that among the three oil diets, those with a lower n-6/n-3 ratio were associated with a lower risk of NAFLD, and the effect of camellia oil on NAFLD was not entirely related to the n-6/n-3 ratio and may have involved other factors. This provides new insights into the effect of oil diets on NAFLD.
		                        		
		                        		
		                        		
		                        			Animals
		                        			;
		                        		
		                        			Camellia/chemistry*
		                        			;
		                        		
		                        			Fatty Acids/analysis*
		                        			;
		                        		
		                        			Hepatocytes/ultrastructure*
		                        			;
		                        		
		                        			Lipid Droplets/physiology*
		                        			;
		                        		
		                        			Lipids/blood*
		                        			;
		                        		
		                        			Male
		                        			;
		                        		
		                        			Non-alcoholic Fatty Liver Disease/pathology*
		                        			;
		                        		
		                        			Plant Oils/administration & dosage*
		                        			;
		                        		
		                        			Rats
		                        			;
		                        		
		                        			Rats, Sprague-Dawley
		                        			
		                        		
		                        	
3.Effects of dietary glycerol monolaurate on productive performance, egg quality, serum biochemical indices, and intestinal morphology of laying hens.
Min-Jie ZHAO ; Hai-Ying CAI ; Meng-Yun LIU ; Ling-Li DENG ; Yang LI ; Hui ZHANG ; Feng-Qin FENG
Journal of Zhejiang University. Science. B 2019;20(11):877-890
		                        		
		                        			
		                        			Glycerol monolaurate (GML) has been widely used as an effective antibacterial emulsifier in the food industry. A total of 360 44-week-old Hy-Line brown laying hens were randomly distributed into four groups each with six replicates of 15 birds, and fed with corn-soybean-meal-based diets supplemented with 0, 0.15, 0.30, and 0.45 g/kg GML, respectively. Our results showed that 0.15, 0.30, and 0.45 g/kg GML treatments significantly decreased feed conversion ratios (FCRs) by 2.65%, 7.08%, and 3.54%, respectively, and significantly increased the laying rates and average egg weights. For egg quality, GML drastically increased albumen height and Haugh units, and enhanced yolk color. Notably, GML increased the concentrations of polyunsaturated and monounsaturated fatty acids and reduced the concentration of total saturated fatty acids in the yolk. The albumen composition was also significantly modified, with an increase of 1.02% in total protein content, and increased contents of His (4.55%) and Glu (2.02%) under the 0.30 g/kg GML treatment. Additionally, GML treatments had positive effects on the lipid metabolism of laying hens, including lowering the serum triglyceride and total cholesterol levels and reducing fat deposition in abdominal adipose tissue. Intestinal morphology was also improved by GML treatment, with increased villus length and villus height to crypt depth ratio. Our data demonstrated that GML supplementation of laying hens could have beneficial effects on both their productivity and physiological properties, which indicates the potential application of GML as a functional feed additive and gives us a new insight into this traditional food additive.
		                        		
		                        		
		                        		
		                        			Albumins/analysis*
		                        			;
		                        		
		                        			Animals
		                        			;
		                        		
		                        			Chickens
		                        			;
		                        		
		                        			Diet
		                        			;
		                        		
		                        			Dietary Supplements
		                        			;
		                        		
		                        			Egg Yolk/chemistry*
		                        			;
		                        		
		                        			Female
		                        			;
		                        		
		                        			Gonadal Steroid Hormones/blood*
		                        			;
		                        		
		                        			Intestines/cytology*
		                        			;
		                        		
		                        			Laurates/administration & dosage*
		                        			;
		                        		
		                        			Lipid Metabolism
		                        			;
		                        		
		                        			Monoglycerides/administration & dosage*
		                        			;
		                        		
		                        			Oviposition/drug effects*
		                        			;
		                        		
		                        			Ovum
		                        			;
		                        		
		                        			Oxidative Stress
		                        			
		                        		
		                        	
4.Salvianolic acids improve liver lipid metabolism in ovariectomized rats via blocking STAT-3/SREBP1 signaling.
Juan CHEN ; Jia YUE ; Jiao LIU ; Yun LIU ; Kai-Lin JIAO ; Meng-Ying TENG ; Chun-Yan HU ; Jing ZHEN ; Mao-Xuan WU ; Ming ZHOU ; Zhong LI ; Yuan LI
Chinese Journal of Natural Medicines (English Ed.) 2018;16(11):838-845
		                        		
		                        			
		                        			Postmenopausal women, who have reduced circulating estrogen levels, are more prone to develop obesity and related metabolic diseases than premenopausal women. The absence of safe and effective treatments for postmenopausal obesity has changed the focus to natural products as alternative remedies. Total salvianolic acids (TSA) are the major water-soluble ingredients of Danshen. Salvianolic acid (SA) is the major constituent of the TSA. Salvianolic acids, including TSA and SA, are widely used in traditional Chinese medicine. In the present study, ovariectomized rats and LO2 cells were used to study the effects of salvianolic acids on body weight gain and hepatic steatosis. Salvianolic acids reduced ovariectomy (OVX)-induced body weight gain, attenuated the expressions of hepatic lipogenic genes, such as sterol regulatory element binding protein (SREBP)1, fatty acid synthase (FAS), and stearoyl-CoA desaturase (SCD)1, and decreased the liver triglyceride (TG) and total cholesterol (TC). For the molecular mechanisms, OVX and high glucose-induced phosphorylation of signal transducer and activator of transcription (STAT)-3 was inhibited by salvianolic acids treatment. In LO2 cells, inhibition of STAT-3 by siRNA attenuated the increased expression of SREBP1 and TG induced by high glucose. Salvianolic acids reduced the upregulation of SREBP1 and TG induced by high glucose in LO2 cells. In conclusion, these findings illustrated that salvianolic acids markedly alleviated the lipid metabolism disorders and protected against the postmenopausal obesity. The underlying mechanism was probably associated with the regulation of STAT-3 signaling.
		                        		
		                        		
		                        		
		                        			Alkenes
		                        			;
		                        		
		                        			administration & dosage
		                        			;
		                        		
		                        			Animals
		                        			;
		                        		
		                        			Drugs, Chinese Herbal
		                        			;
		                        		
		                        			administration & dosage
		                        			;
		                        		
		                        			Female
		                        			;
		                        		
		                        			Humans
		                        			;
		                        		
		                        			Lipid Metabolism
		                        			;
		                        		
		                        			drug effects
		                        			;
		                        		
		                        			Liver
		                        			;
		                        		
		                        			drug effects
		                        			;
		                        		
		                        			metabolism
		                        			;
		                        		
		                        			Obesity
		                        			;
		                        		
		                        			drug therapy
		                        			;
		                        		
		                        			genetics
		                        			;
		                        		
		                        			metabolism
		                        			;
		                        		
		                        			Ovariectomy
		                        			;
		                        		
		                        			Polyphenols
		                        			;
		                        		
		                        			administration & dosage
		                        			;
		                        		
		                        			Postmenopause
		                        			;
		                        		
		                        			drug effects
		                        			;
		                        		
		                        			genetics
		                        			;
		                        		
		                        			metabolism
		                        			;
		                        		
		                        			Rats
		                        			;
		                        		
		                        			STAT3 Transcription Factor
		                        			;
		                        		
		                        			genetics
		                        			;
		                        		
		                        			metabolism
		                        			;
		                        		
		                        			Salvia miltiorrhiza
		                        			;
		                        		
		                        			chemistry
		                        			;
		                        		
		                        			Signal Transduction
		                        			;
		                        		
		                        			drug effects
		                        			;
		                        		
		                        			Sterol Regulatory Element Binding Protein 1
		                        			;
		                        		
		                        			genetics
		                        			;
		                        		
		                        			metabolism
		                        			;
		                        		
		                        			Triglycerides
		                        			;
		                        		
		                        			metabolism
		                        			
		                        		
		                        	
5.Effects of Rapamycin on Clinical Manifestations and Blood Lipid Parameters in Different Preeclampsia-like Mouse Models.
Yan-Hong YI ; Zi YANG ; Yi-Wei HAN ; Jing HUAI
Chinese Medical Journal 2017;130(9):1033-1041
BACKGROUNDThe pathogenesis of some types of preeclampsia is related to fatty acid oxidation disorders. Rapamycin can regulate fatty acid metabolism. This study aimed to investigate the effects of rapamycin on the clinical manifestations and blood lipid parameters in different preeclampsia-like mouse models.
METHODSTwo preeclampsia-like mouse models and a control group were established: L-NA (injected with Nω-nitro-L-arginine methyl ester), LPS (injected with lipopolysaccharide), and the control group with normal saline (NS). The mouse models were established at preimplantation (PI), early- and late-pregnancy (EP, LP) according to the time of pregnancy. The administration of rapamycin (RA; L-NA+RA, LPS+RA, and NS+RA) or vehicle as controls (C; L-NA+C, LPS+C, NS+C) were followed on the 2nd day after the mouse models' establishment. Each subgroup consisted of eight pregnant mice. The mean arterial pressure (MAP), 24-h urinary protein, blood lipid, fetus, and placental weight were measured. The histopathological changes and lipid deposition of the liver and placenta were observed. Student's t-test was used for comparing two groups. Repeated measures analysis of variance was used for blood pressure analysis. Qualitative data were compared by Chi-square test.
RESULTSThe MAP and 24-h urinary protein in the PI, EP, and LP subgroups of the L-NA+C and LPS+C groups were significantly higher compared with the respective variables in the NS+C group (P < 0.05). The preeclampsia-like mouse models were established successfully. There was no significant difference in the MAP between the PI, EP, and LP subgroups of the L-NA+RA and L-NA+C groups and the LPS+RA and LPS+C groups. The 24-h urine protein levels in the PI and EP subgroups of the L-NA+RA group were significantly lower compared with the respective levels in the L-NA+C groups (1037 ± 63 vs. 2127 ± 593 μg; 976 ± 42 vs. 1238 ± 72 μg; bothP < 0.05), also this effect appeared similar in the PI and EP subgroups of the LPS+RA and LPS+C groups (1022 ± 246 vs. 2141 ± 432 μg; 951 ± 41 vs. 1308 ± 30 μg; bothP < 0.05). The levels of serum-free fatty acid (FFA) in the PI and EP subgroups of the L-NA+RA groups were significantly lower compared with the respective levels in the L-NA+C group (2.49 ± 0.44 vs. 3.30 ± 0.18 mEq/L; 2.23 ± 0.29 vs. 2.84 ± 0.14 mEq/L; bothP < 0.05). The levels of triglycerides (TG) and total cholesterol in the PI subgroup of the L-NA+RA group were significantly lower compared with the respective levels in the L-NA+C (1.51 ± 0.16 vs. 2.41 ± 0.37 mmol/L; 2.11 ± 0.17 vs. 2.47 ± 0.26 mmol/L; bothP < 0.05), whereas high-density lipoprotein serum concentration was significantly higher (1.22 ± 0.19 vs. 0.87 ± 0.15 mmol/L;P < 0.05) and low-density lipoprotein serum concentration did not exhibit a significant difference. There were no significant differences in the FFA of the PI, EP, and LP subgroups between the LPS+RA and the LPS+C groups. The levels of TG in the PI subgroup of the LPS+RA group were significantly lower compared with the respective levels in the LPS+C group (0.97 ± 0.05 vs. 1.22 ± 0.08 mmol/L;P < 0.05).
CONCLUSIONRapamycin can improve clinical manifestations and blood lipid profile in part of the preeclampsia-like mouse models.
Animals ; Blood Pressure ; drug effects ; Chi-Square Distribution ; Cholesterol ; blood ; Disease Models, Animal ; Female ; Lipid Metabolism ; drug effects ; Lipids ; blood ; Lipoproteins, HDL ; blood ; Lipoproteins, LDL ; blood ; Mice ; Mice, Inbred C57BL ; Placenta ; drug effects ; metabolism ; Pre-Eclampsia ; blood ; drug therapy ; Pregnancy ; Pregnancy Outcome ; Sirolimus ; therapeutic use ; Triglycerides ; administration & dosage ; blood
6.Antihypertensive effect of ethanol extracts of Aralia elata in spontaneously hypertensive rats.
Ju Youn JIN ; Eun Hye PARK ; Yoon A JEON ; Young Jae LEE
Korean Journal of Veterinary Research 2017;57(3):181-187
		                        		
		                        			
		                        			Antihypertensive effects of ethanol extracts of Aralia elata (Miq.) Seem. (AE) were investigated in spontaneously hypertensive rats (SHR). SHR aged 14 weeks were treated for 8 weeks with AE (10 or 50 mg/kg/day) or amlodipine besylate (Am; 10 mg/kg/day) orally. Hypertension results in injury to several organs and can produce a significant increase in malondialdehyde (MDA) content as a result of lipid peroxidation and endothelial dysfunction. In this study, oral administration of AE and Am significantly reduced systolic blood pressure, organ weight index, and MDA content in tissues but increased significantly the plasma nitrite and nitrate concentrations. The endothelium-dependent relaxant activities of acetylcholine (10⁻¹⁰–10⁻³ M) in norepinephrine (NE)-precontracted aorta were increased in AE- and Am-treated rats. Particularly strong endothelium-dependent relaxant activities were observed in AE-treated (50 mg/kg) rats. The endothelium-independent relaxant activities of sodium nitroprusside (10⁻¹⁰–10⁻³ M) in NE-precontracted aorta were not changed. The results of this study suggest that AE has both antihypertensive and end-organ protective effects in SHR.
		                        		
		                        		
		                        		
		                        			Acetylcholine
		                        			;
		                        		
		                        			Administration, Oral
		                        			;
		                        		
		                        			Amlodipine
		                        			;
		                        		
		                        			Animals
		                        			;
		                        		
		                        			Aorta
		                        			;
		                        		
		                        			Aralia*
		                        			;
		                        		
		                        			Blood Pressure
		                        			;
		                        		
		                        			Ethanol*
		                        			;
		                        		
		                        			Hypertension
		                        			;
		                        		
		                        			Lipid Peroxidation
		                        			;
		                        		
		                        			Malondialdehyde
		                        			;
		                        		
		                        			Nitroprusside
		                        			;
		                        		
		                        			Norepinephrine
		                        			;
		                        		
		                        			Organ Size
		                        			;
		                        		
		                        			Plasma
		                        			;
		                        		
		                        			Rats
		                        			;
		                        		
		                        			Rats, Inbred SHR*
		                        			
		                        		
		                        	
7.Pomegranate leaf attenuates lipid absorption in the small intestine in hyperlipidemic mice by inhibiting lipase activity.
Xuan YU ; Xin-Pei WANG ; Fan LEI ; Jing-Fei JIANG ; Jun LI ; Dong-Ming XING ; Li-Jun DU
Chinese Journal of Natural Medicines (English Ed.) 2017;15(10):732-739
		                        		
		                        			
		                        			Pomegranate leaf (PGL) has a definite role in regulating lipid metabolism. However, pharmacokinetic results show the main active ingredient, ellagic acid, in PGL has lower oral bioavailability, suggesting that the lipid-lowering effect of PGL may act through inhibiting lipid absorption in the small intestine. Our results demonstrated that pomegranate leaf and its main active ingredients (i.e., ellagic acid, gallic acid, pyrogallic acid and tannic acid) were capable of inhibiting pancreatic lipase activity in vitro. In computational molecular docking, the four ingredients had good affinity for pancreatic lipase. Acute lipid overload experiments showed that a large dosage of PGL significantly reduced serum total cholesterol (TG) and triglycerides (TC) levels in addition to inhibiting intestinal lipase activity, which demonstrated that PGL could inhibit lipase activity and reduce the absorption of lipids. We also found that PGL could reverse the reduced tight-junction protein expression due to intestinal lipid overload, promote Occludin and Claudin4 expression in the small intestine, and enhance the intestinal mucosal barrier. In conclusion, we demonstrated that PGL can inhibit lipid absorption and reduce blood TG and TC by targeting pancreatic lipase, promoting tight-junction protein expression and thereby preventing intestinal mucosa damage from an overload of lipids in the intestine.
		                        		
		                        		
		                        		
		                        			Animals
		                        			;
		                        		
		                        			Enzyme Inhibitors
		                        			;
		                        		
		                        			administration & dosage
		                        			;
		                        		
		                        			chemistry
		                        			;
		                        		
		                        			Humans
		                        			;
		                        		
		                        			Hyperlipidemias
		                        			;
		                        		
		                        			drug therapy
		                        			;
		                        		
		                        			enzymology
		                        			;
		                        		
		                        			metabolism
		                        			;
		                        		
		                        			Intestinal Absorption
		                        			;
		                        		
		                        			Intestine, Small
		                        			;
		                        		
		                        			metabolism
		                        			;
		                        		
		                        			Kinetics
		                        			;
		                        		
		                        			Lipase
		                        			;
		                        		
		                        			chemistry
		                        			;
		                        		
		                        			metabolism
		                        			;
		                        		
		                        			Lipid Metabolism
		                        			;
		                        		
		                        			Lythraceae
		                        			;
		                        		
		                        			chemistry
		                        			;
		                        		
		                        			Male
		                        			;
		                        		
		                        			Mice
		                        			;
		                        		
		                        			Mice, Inbred ICR
		                        			;
		                        		
		                        			Plant Extracts
		                        			;
		                        		
		                        			administration & dosage
		                        			;
		                        		
		                        			chemistry
		                        			;
		                        		
		                        			Plant Leaves
		                        			;
		                        		
		                        			chemistry
		                        			;
		                        		
		                        			Triglycerides
		                        			;
		                        		
		                        			metabolism
		                        			
		                        		
		                        	
8.Effect of Compound Zhajin Granule on Toll-like Receptor 4 Signaling Pathway in Nonalcoholic Steatohepatitis Mice.
Jing LIU ; Zhen-jie ZHUANG ; Jing TIAN ; Zhao-yi LI ; Yan LUO ; Yin-lan LIU ; Jian-yu CHEN ; Xiao-jie MA ; Shu-fei ZANG ; Jun-ping SHI
Chinese Journal of Integrated Traditional and Western Medicine 2016;36(4):460-465
OBJECTIVETo observe the effect of Compound Zhajin Granule (CZG) on Toll-like re-ceptor 4 (TLR4) signaling pathway in high-fructose corn syrup induced NASH mice.
METHODSThirty 6-week-old male C3H mice were divided into the high fat and high fructose (HFHFr) group (n = 20) and the control group (n = 10) according to body weight. Mice in the HFHFr group ate high fat diet and drank 20% fructose water, while those in the control group ate common diet and drank common water. After 8 weeks mice in the HFHFr group were divided into two group according to body weight, the HFHFr group and the CZG group, 10 in each group. Mice in the CZG group were fed with high fat forage and 20% fructose water, and administered with 50 mL/kg 12. 8% CZG (prepared by hawthorn, Radix Curcumae, Alisma Orientale, Fritillaria Thunbergii, Silybum Marianum, peach seed in the ratio of 3:1.5:1.5:2:1.5:2:1) by gastrogavage. Mice in the HFHFr group were fed in the same way and daily administered with equal volume of distilled water by gastrogavage. Sixteen weeks later all mice were sacrificed. Body weight, liver wet weight, liver function, and lipid metabolism were detected. Pathological changes of liver tissues were assessed by HE staining, oil red O staining, and Masson staining. Expressions of TLR4, myeloid differentiation factor 88 (MyD88), tumor necrosis factor-alpha (TNF-α) were detected using immunohistochemical staining and real-time fluorescent quantitative PCR.
RESULTSBody weight, alanine aminotransferase (ALT), aspartate aminotransferase (AST) were obviously lower in the CZG group than in the HFHFr group (P < 0.05); oil red O stained area and density were decreased more in the CZG group than in the control group. HE staining showed ballooning inflammation was reduced more in the CZG group than in the HFHFr group. Masson staining was negative. Positive rates of TLR4 and MyD88 and mRNA expressions were significantly lower in the CZG group than in the HFHFr group (all P < 0.05).
CONCLUSIONCZG could significantly inhibit TLR4 signaling pathway of liver in NASH mice.
Alanine Transaminase ; metabolism ; Animals ; Aspartate Aminotransferases ; metabolism ; Diet, High-Fat ; Drugs, Chinese Herbal ; pharmacology ; Fructose ; administration & dosage ; adverse effects ; Inflammation ; Lipid Metabolism ; Male ; Mice ; Mice, Inbred C3H ; Myeloid Differentiation Factor 88 ; metabolism ; Non-alcoholic Fatty Liver Disease ; drug therapy ; Signal Transduction ; drug effects ; Toll-Like Receptor 4 ; metabolism ; Tumor Necrosis Factor-alpha ; metabolism
9.Effect of Jinlida on changes in expression of skeletal muscle lipid transport enzymes in fat-induced insulin resistance ApoE -/- mice.
Xin JIN ; Hui-xin ZHANG ; Yan-fen ZHANG ; Wen-wen CUI ; Yao BI ; Qi-long HE ; Sheng-shan ZHOU
China Journal of Chinese Materia Medica 2015;40(6):1156-1160
OBJECTIVETo study the effect of Jinlida on changes in expression of skeletal muscle lipid transport enzymes in fat-induced insulin resistance ApoE -/- mice.
METHODEight male C57BL/6J mice were selected in the normal group (NF), 40 male ApoE -/- mice were fed for 16 weeks, divided into the model group (HF), the rosiglitazone group ( LGLT), the Jinlida low-dose group (JLDL), the Jinlida medium-dose group (JLDM), the Jinlida high-dose group (JLDH) and then orally given drugs for 8 weeks. The organization free fatty acids, BCA protein concentration determination methods were used to determine the skeletal muscle FFA content. The Real-time fluorescent quantitative reverse transcription PCR ( RT-PCR) and Western blot method were adopted to determine mRNA and protein expressions of mice fatty acids transposition enzyme (FAT/CD36), carnitine palm acyltransferase 1 (CPT1), peroxide proliferators-activated receptor α( PPAR α).
RESULTJinlida could decrease fasting blood glucose (FBG), cholesterol (TC), triglyceride (TG), free fatty acid (FFA) and fasting insulin (FIns) and raise insulin sensitive index (ISI) in mice to varying degrees. It could also up-regulate mRNA and protein expressions of CPT1 and PPARα, and down-regulate mRNA and protein levels of FAT/CD36.
CONCLUSIONJinlida can improve fat-induced insulin resistance ApoE -/- in mice by adjusting the changes in expression of skeletal muscle lipid transport enzymes.
Animals ; Apolipoproteins E ; deficiency ; genetics ; Blood Glucose ; metabolism ; CD36 Antigens ; genetics ; metabolism ; Carnitine O-Palmitoyltransferase ; genetics ; metabolism ; Dietary Fats ; adverse effects ; metabolism ; Drugs, Chinese Herbal ; administration & dosage ; Humans ; Hypoglycemic Agents ; administration & dosage ; Insulin ; metabolism ; Insulin Resistance ; Lipid Metabolism ; drug effects ; Male ; Metabolic Diseases ; drug therapy ; enzymology ; genetics ; metabolism ; Mice ; Mice, Inbred C57BL ; Mice, Knockout ; Muscle, Skeletal ; drug effects ; metabolism
10.Study on mechanism for anti-hyperlipidemia efficacy of rhubarb through assistant analysis systems for acting mechanisms of traditional Chinese medicine.
Li DU ; Bin YUAN ; Bai-xia ZHANG ; Yan-ling ZHANG ; Xiao-yan GAO ; Yun WANG
China Journal of Chinese Materia Medica 2015;40(19):3703-3708
		                        		
		                        			
		                        			Rhubarb is a traditional Chinese medicine (TCM), wildly used in treating the disease of hyperlipidemia. However, its components are complicated, so that it is still difficult to clear the specific roles of its various components in blood lipids regulation in. So we decide to systematically study the anti- hyperlipidemia mechanism of rhubarb. We integrated multiple databases, based on entity grammar systems model, constructed molecular interaction network between the chemical constituents of rhubarb and hyperlipidemia. The network includes 231 nodes and 638 edges. Thus we infer the interactions of active targets and disease targets to clarify the anti-hyperlipidemia mechanism. And find that rhubarb can promote excretion of cholesterol; inhibit clotting factors and improve blood circulation; inhibit the release of inflammatory cytokines and maintain fat metabolism balance; inhibit cholesterol and triglyceride synthesis; and other ways to achieve lipid-lowering effect. Thus this study provides reference for novel drug development and component compatibility, and also gives a new way for the systematically study of acting mechanism of traditional Chinese medicine.
		                        		
		                        		
		                        		
		                        			Animals
		                        			;
		                        		
		                        			Databases, Factual
		                        			;
		                        		
		                        			Drugs, Chinese Herbal
		                        			;
		                        		
		                        			administration & dosage
		                        			;
		                        		
		                        			chemistry
		                        			;
		                        		
		                        			Gene Regulatory Networks
		                        			;
		                        		
		                        			drug effects
		                        			;
		                        		
		                        			Humans
		                        			;
		                        		
		                        			Hyperlipidemias
		                        			;
		                        		
		                        			drug therapy
		                        			;
		                        		
		                        			genetics
		                        			;
		                        		
		                        			metabolism
		                        			;
		                        		
		                        			Hypolipidemic Agents
		                        			;
		                        		
		                        			administration & dosage
		                        			;
		                        		
		                        			chemistry
		                        			;
		                        		
		                        			Lipid Metabolism
		                        			;
		                        		
		                        			Rheum
		                        			;
		                        		
		                        			chemistry
		                        			;
		                        		
		                        			Signal Transduction
		                        			;
		                        		
		                        			drug effects
		                        			
		                        		
		                        	
            
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