Theracurmin (Highly Bioavailable Curcumin) Prevents High Fat Diet-Induced Hepatic Steatosis Development in Mice
Toxicological Research 2019;35:403−410
Published online October 15, 2019;
© 2019 Korean Society of Toxicology.

Jin Won Yang1, Hee Kyung Yeo2, Jee Hye Yun2 and Jung Un Lee3

1College of Pharmacy, Woosuk University, Wanju, Korea
2HANDOK Inc., Seoul, Korea
3ChemOn Inc., Suwon, Korea
Jin Won Yang, College of Pharmacy, Woosuk University, 443 Samnyero, Samnye-eup, Wanju-gun, Jeonbuk 55338, Korea
Received: December 26, 2018; Revised: February 27, 2019; Accepted: March 8, 2019
This is an Open Access article distributed under the terms of the Creative Commons Attribution Non-Commercial License ( which permits unrestricted non-commercial use, distribution, and reproduction in any medium, provided the original work is properly cited.

Curcumin, a hydrophobic polyphenol isolated from the Curcuma longa L. plant, has many pharmacological properties, including antioxidant, anti-inflammatory, and chemo-preventive activities. Curcumin has been shown to have potential in preventing nonalcoholic fatty liver disease (NAFLD). However, the low bioavailability of curcumin has proven to be a major limiting factor in its clinical adoption. Theracurmin, a highly bioavailable curcumin that utilizes micronized technology showed improved biological absorbability in vivo. The aim of this study was to investigate the role of theracurmin in modulating hepatic lipid metabolism in vivo. A fatty liver mouse model was produced by feeding mice a high fat diet (HFD; 60% fat) for 12 weeks. We found that treatment for 12 weeks with theracurmin significantly lowered plasma triacylglycerol (TG) levels and reduced HFD-induced liver fat accumulation. Theracurmin treatment lowered hepatic TG and total cholesterol (T-CHO) levels in HFD-fed mice compared to controls. In addition, theracurmin administration significantly reduced lipid peroxidation and cellular damage caused by reactive oxygen species in HFD-fed mice. Overall, these results suggest that theracurmin has the ability to control lipid metabolism and can potentially serve as an effective therapeutic remedy for the prevention of fatty liver.

Keywords : Theracurmin, Curcumin, Nonalcoholic fatty liver disease (NAFLD), High fat diet (HFD), Fatty liver, Steatosis

Non-alcoholic fatty liver disease (NAFLD) has been recognized as a common liver disease worldwide. The term represents a broad spectrum of liver damage ranging from simple steatosis to nonalcoholic steatohepatitis (NASH), progressive fibrosis, and cirrhosis (1,2). NAFLD is strongly associated with metabolic syndrome-associated conditions such as obesity, dyslipidemia, diabetes, hypertension, and insulin resistance (3,4). The detailed pathogenesis of NAFLD is not completely known, but excessive fatty acid [triacylglycerol (TG)] and cholesterol (CHO) accumulation in the liver has been linked to the development of NASH, cirrhosis, and cancer (5,6). Although current therapeutic approaches have focused on the treatment of the underlying risk factors for these metabolic conditions, no standard strategy has yet been approved for NAFLD therapy (2,6).

Curcumin, a natural yellow polyphenol that exists in herbal remedies and the dietary spice turmeric, has been shown to possess antioxidant, anti-inflammatory, antimicrobial, and chemopreventive activities, and has been demonstrated to prevent obesity and diabetes in animal models (7,8). Curcumin also exerted beneficial effects against hypercholesterolemia and dyslipidemia in rodent animal models, as well as in two randomized double-blind NAFLD clinical trials (9,10).

Although curcumin has been shown to be protective against dyslipidemia and NAFLD, its therapeutic outcomes and clinical use is limited by low oral bioavailability owing to its very low intestinal absorption and hydrophobic properties, leading to poor solubility (1113). Many studies investigating curcumin delivery systems, including submicron suspensions, phosphatidylcholine complexes, and solid lipid nanoparticles, have been performed with the aim of improving curcumin oral bioavailability (1416). Among these, thearcurmin, a highly bioavailable curcumin developed using micronized-technology, has significantly increased bioavailability and water solubility relative to curcumin. In rat and human studies, theracurmin absorption was 30-fold higher than that of commercially available curcumin (14). Moreover, the maximum curcumin plasma concentration increased over 50-fold when theracurmin was used instead of curcumin powder (14).

Theracurmin has been reported to be effective against a variety of pathological conditions including cardiovascular disease, esophageal cancer, inflammatory bowel disease, and osteoarthritis (11,14,17). However, no basic or clinical studies regarding the efficacy of theracurmin against NAFLD, including hepatic steatosis, have been performed. In this study, we evaluated the preventive effect of theracurmin on hepatic steatosis in mice fed with a high fat diet (HFD). We uncovered that theracurmin treatment prevented the accumulation of TG and total cholesterol (T-CHO), as well as the lipid peroxidation, normally observed in the livers of HFD-fed mice. Our findings suggested that theracurmin is protective against NAFLD through lipid metabolism and oxidative stress modulation, and has therapeutic potential.


Animals and treatment

Animal experiments were performed in accordance with the requirements of the Animal Care and Ethics Committees of Gyeonggi bio center (2017-08-0001). C57BL/6N mice at 4 weeks of age were maintained in a standard condition (23 ± 3°C, 55 ± 15% humidity with a 12-hr light/dark cycle), pathogen-free environment and had access to a sterile standard rodent chow diet and water ad libitum. After a one week adaptive period, Male C57BL/6N mice at 5 weeks of age were started on either a normal diet (ND) or HFD 60% w/w for 12 weeks. Vehicle (normal saline), theracurmin (500, 1,000, and 2,000 mg/kg, as a curcumin 150, 300, 600 mg/kg), or silymarin (25 mg/kg) were orally administered to mice seven times per week during 12 weeks of the diet feeding.

Histopathological analysis

The left lateral lobe of the liver was sliced and tissue slices were fixed in 10% buffered-neutral formalin, embedded in paraffin. The liver slices were used to generate 3–4 μm sections in a cryostat. Tissue sections were stained with H&E and Oil red O staining.

After that the histological profiles of individual cross trimmed hepatic tissues were light microscopically observed (Model Eclipse 80i, Nikon, Tokyo, Japan). To observe more detail histopathological changes, the steatohepatitis regions (under OR staining) and mean hepatocyte diameters (under HE staining) were calculated using an automated image analysis process (iSolution FL ver 9.1, IMT i-solution Inc., Vancouver, Quebec, Canada) on the restricted view fields. Steatohepatitis regions, the percentage of fatty deposited regions in hepatic parenchyma, were calculated as percentages of lipid deposited regions between restricted histological view field of liver (Mean hepatic steatosis regions - %/mm2 of hepatic parenchyma) under cryostat and oil red staining. Mean diameters of hepatocytes were also calculated in restricted view fields on a computer monitor under paraffin embedding and HE staining using an automated image analysis process.

Measurement of hepatic TG and total cholesterol contents

TG (Catalog#K622-100, Biovision, San Francisco, CA, USA) and T-CHO (Catalog#K603, Biovision) contents were measured using commercial kits.

Biochemical parameters

Serum was collected after centrifugation at 3,000 rpm for 10 min. Serum TG (Catalog#OSR61118, Beckman coulter, CA, USA), T-CHO (Catalog#OSR6116, Beckman coulter), LDL-C (Catalog#6183, Beckman coulter), and HDL-C (Catalog#OSR6187, Beckman coulter), were analyzed using commercial kits from Chemistry Analyzer (AU680, Beckman coulter).

Measurement of hepatic malondialdehyde and glutathione contents

Malondialdehyde (MDA) levels was determined by the thiobarbituric acid (TBA) method (Catalog#STA-330, Cellbiolabs, San Francisco, CA, USA). TBA reaction was performed according to manufactory guidance. Glutathione (GSH) were analyzed using commercial kits (Catalog#ADI-900-160, ENZO Life Science, Vileurbanne, France).

Data analysis

Statistical analyses were performed using SPSS statistics 22 for medical science. LSD test was used to examine the significant inter-group differences. Statistical significance was accepted at either p < 0.05 or p < 0.01.


Theracurmin inhibits HFD-induced hepatic steatosis

To examine the effect of theracurmin on liver fat accumulation, mice were fed with a HFD (60% fat) for 12 weeks and then treated with vehicle, theracurmin, or silymarin (25 mg/kg; reference control). Since the main histological feature of hepatic steatosis is liver fat accumulation, hepatic fat deposition was measured. Histopathological analysis using hematoxylin and eosin (H&E) and Oil Red O tissue staining found that HFD fed mice exhibited increased hepatocyte fat accumulation (Fig. 1A). Theracurmin treatment at doses of 500, 1,000, and 2,000 mg/kg significantly reduced these pathological changes in the tissue, as did oral administration of silymarin (Fig. 1B).

Theracurmin improves the accumulation hepatic TG and T-CHO in HFD-fed mice

TG and T-CHO accumulation in hepatocyte cytoplasm is the hallmark of NAFLD (1). Theracurmin treatment (2,000 mg/kg) for 12 weeks reduced HFD-induced hepatic TG content increases, as did oral administration of silymarin (Fig. 2A). In addition, hepatic CHO levels were significantly decreased in theracurmin-treated mice relative to ND controls [ND: 2.12 ± 0.10 mg/dL; HFD, 3.88 ± 0.19 mg/dL; HFD + Theracurmin (500 mg/kg), 3.17 ± 0.20 mg/dL; HFD + Theracurmin (1,000 mg/kg), 2.74 ± 0.16 mg/dL; HFD + Theracurmin (2,000 mg/kg), 2.38 ± 0.09 mg/dL] (Fig. 2B). Accordingly, HFD treatment for 12 weeks induced increases in hepatocyte and hepatic steatosis region diameter increases, phenomena notably attenuated by administrations of theracurmin at doses of 500, 1,000, and 2,000 mg/kg (Fig. 1B).

Theracurmin reduces plasma TG but does not affect body weight in HFD-fed mice

Next, we examined the effect of theracurmin on serum lipid levels. Theracurmin treatment significantly reduced HFD-induced plasma TG level increases but did not affect plasma total CHO, low-density lipoprotein (LDL), and high-density lipoprotein (HDL) levels (Fig. 3). However, the administration of theracurmin did not affect body weight gain or food intake amounts (Supplementary Fig. 1).

Theracurmin inhibits HFD-induced lipid peroxidation

Lipid peroxidation and cellular damage by reactive oxygen species is characterized by membrane lipid breakdown and the production of lipid peroxides (18). As observed in Fig. 4A, liver MDA production, a marker of lipid peroxidation, was elevated in HFD-treated mice relative to normal diet-fed controls. This elevation of hepatic MDA was significantly attenuated by theracurmin administration at a dosage of 2,000 mg/kg. Theracurmin treatment (1,000 and 2,000 mg/kg doses) also increased hepatic GSH content versus untreated HFD-fed mice (Fig. 4B).


Curcumin has been shown to reduce hepatic steatosis, inflammation, insulin resistance, diabetes, and atherosclerosis by regulating hepatic lipid metabolism and plasma lipid homeostasis (19,20). However, the low oral bioavailability of curcumin limits its clinical adoption (11). To overcome this, theracumin, a submicron crystal solid dispersion of curcumin, was formulated to enhance curcumin bioavailability through enhanced water solubility and absorption (7,11).

We demonstrate herein that theracurmin administration exerted anti-steatotic activity in the livers of mice fed with high fat diets. In the current study, theracurmin administration led to significant decreases in both hepatic TG and total CHO levels in mice fed a HFD for 12 weeks. Excessive fatty acids, derived from diet or lipolysis, results in hepatocyte lipid droplet accumulation, a representative feature of NAFLD (21). Consequently, specific lipotoxic lipids, including ceramide, diacylglycerols, and lysophosphatidyl choline species, from these droplets induce hepatocellular injury in NASH (2,21). In addition, an imbalance between intrahepatic CHO and the removal of CHO from hepatocytes leads to CHO accumulation in the liver (22,23). This extensive dysregulation of hepatic CHO homeostasis has been shown to accentuate hepatocellular injury and liver inflammation in NAFLD development. Thus, preventing TG and CHO accumulation in the liver may prove promising for NAFLD treatment.

Curcumin has been reported to alleviate HFD-induced obesity in mice through the inhibition of sterol regulatory element-binding proteins (SREBPs) such as SREBP-1 and SREBP-2. SREBPs are key transcription factors that modulate the expression of genes related to lipid synthesis (24). Specifically, SREBP-1c activation results in lipid-mediated lipotoxicity that contributes to metabolic syndrome-associated conditions including obesity, diabetes mellitus, hepato-steatosis, dyslipidemia, inflammation, and fibrosis in various organs (24,25). SREBP-2 is a crucial transcription factor involved in the regulation of CHO metabolism (26). We also confirmed that theracurmin treatment attenuated the increase in SREBP-1 induced by HFD (Supplementary Fig. 2). Curcumin has also been shown to reduce CHO accumulation via inhibition of 3-hydroxy-3-methylglutaryl-CoA (HMG-CoA) reductase, the rate-limiting enzyme of CHO synthesis, and acyl-CoA:cholesterol acyltransferase (ACAT), the main enzyme responsible for the intracellular esterification of CHO. It was also observed that theracurmin administration attenuated the increase HFD-associated increase in hepatic T-CHO levels (Fig. 2B). Although theracurmin treatment did not affect serum T-CHO in mice fed a HFD for 12 weeks, a low dosage of theracurmin (200 mg/kg or 400 mg/kg) resulted in a suppression of serum T-CHO levels in mice fed an HFD for 8 weeks (data not shown). Thus, it is plausible that theracurmin may regulate the extensive dysregulation of hepatic CHO homeostasis necessary for the development of hepatic steatosis found in HFD-fed mice. At the present time, the expression of hepatic HMG-CoA reductase and ACAT remains unexplored and will be a focus of further study.

Lipid accumulation as part of NAFLD progression results in increased vulnerability to oxidative stress, leading to an increase in inflammation, endoplasmic reticulum stress, mitochondrial dysfunction, and an inability of hepatocytes to synthesize endogenous antioxidants (27). Oxidative stress is caused by an imbalance between the formation of reactive nitrogen species and antioxidant defenses (28). Although the main processes for producing oxidizing species is related to the production of hydrogen peroxide in peroxisomes and oxidative metabolism in mitochondria, lipid peroxidation, the major consequence of oxidative stress, produces extremely reactive aldehyde components such as 4-hydroxy-2-nonenal and MDA, leading to intracellular damage in the liver (29,30). Curcumin also has been shown to alleviate reactive oxygen species (ROS)-induced lipid peroxidation in mitochondria (31). These findings are consistent with our previous results, which saw theracurmin treatment contributing to a decrease in lipid peroxide levels and the induction of glutathione, both phenomena playing crucial roles in the detoxification and antioxidant systems involved in hepatic steatosis. Curcumin has been reported to induce the expression of antioxidant enzymes by up-regulating nuclear factor erythroid-2-related factor-2 (Nrf2) (32,33). In addition, curcumin contributed to a decrease in ROS production through the activation of Nrf2 in the muscles of HFD-fed mice (34). Due to this link between antioxidant enzyme expression and lipid peroxidation control, further studies should be conducted to address whether the decrease in lipid peroxidation observed after theracurmin treatment is related antioxidant enzyme levels or Nrf2 activation.

In conclusion, theracurmin appeared to play a crucial role in the prevention of hepatic steatosis by mediating the inhibition of TG/T-CHO biosynthesis and lipid peroxidation in the liver, suggesting that theracurmin can potentially be a new candidate as a therapeutic option for the treatment of fatty liver.


This work was financially supported by Handok Inc.

ACAT: acyl-CoA:cholesterol acyltransferase
GSH: glutathione
HDL: high-density lipoprotein
H&E: hematoxylin and eosin
HFD: high fat diet
HMG-CoA: 3-hydroxy-3-methylglutaryl-CoA
LDL: low-density lipoprotein
MDA: malondialdehyde
NAFLD: Nonalcoholic fatty liver disease
NASH: nonalcoholic steatohepatitis
ND: normal diet
Nrf2: nuclear factor erythroid-2-related factor-2
ROS: reactive oxygen species
SREBPs: sterol regulatory elementbinding proteins
TBA: thiobarbituric acid
T-CHO: Total cholesterol
TG: triacylglycerol.
Fig. 1. Effects of theracurmin on hepatic lipid accumulation in mice fed with HFD. (A) Liver sections were stained with H&E or oil-Red O staining. The mice were fed either a ND or HFD for 12 weeks. theracurmin (500, 1,000, and 2,000mg/kg) or silymarin (25mg/kg) (reference control) was administered to the mice at the same time. H&E staining. The livers of the mice were stained with H&E after a treatment with 500, 1,000, and 2,000mg/kg theracurmin for 12 weeks. CV, Central vein; PT, Portal triad area; Scale bars = 100 μm. Oil Red O staining. Each photo represents their groups after staining with Oil Red O in the liver. Scale bars = 100 μm. (B) Histomorphometric analysis. Measurement of hepatic steatosis region (%/mm2 of hepatic parenchyma) and diameter of hepatocyte (mm/hepatocyte). Data were expressed as mean ± SEM statistically analyzed by LSD-test methods. Significant versus normal control, ##p< 0.01; significant versus HFD-fed group, **p< 0.01 (n = 10). G1: ND (normal saline), n = 10; G2: HFD + vehicle (normal saline), n = 10; G3: HFD + theracurmin (500 mg/kg/day), n = 10; G4: HFD + theracurmin (1,000 mg/kg/day), n = 10; G5: HFD + theracurmin (2,000 mg/kg/day), n = 10; G6: HFD + reference control (silymarin 25 mg/kg/day), n = 10.
Fig. 2. Effects of theracurmin on the accumulation of hepatic TG and CHO in HFD-fed mice. (A, B) Measurement of accumulation of TG and CHO in the liver from mice of each group. Data were expressed as mean ± SEM statistically analyzed by LSD-test methods. Significant versus normal control, ##p< 0.01; significant versus HFD-fed group, **p< 0.01 (n = 10). G1: ND (normal saline), n = 10; G2: HFD + vehicle (normal saline), n = 10; G3: HFD + theracurmin (500 mg/kg/day), n = 10; G4: HFD + theracurmin (1,000 mg/kg/day), n = 10; G5: HFD + theracurmin (2,000 mg/kg/day), n = 10; G6: HFD + reference control (silymarin 25 mg/kg/day), n = 10.
Fig. 3. Effects of theracurmin on the serum TG, CHO, LDL, and HDL in HFD-fed mice. (A–D) serum TG levels (A), serum CHO levels (B), serum LDL levels (C), serum HDL levels (D) in mice fed a normal diet or high-fat-diet for 12 weeks. Data were expressed as mean ± SEM statistically analyzed by Q-test and LSD-test methods. Significant versus normal control, ##p< 0.01; significant versus HFD-fed group, **p< 0.01 (n = 10). G1: ND (normal saline), n = 10; G2: HFD + vehicle (normal saline), n = 10; G3: HFD + theracurmin (500mg/kg/day), n = 10; G4: HFD + theracurmin (1,000 mg/kg/day), n = 10; G5: HFD + theracurmin (2,000 mg/kg/day), n = 10; G6: HFD + reference control (silymarin 25mg/kg/day), n = 10.
Fig. 4. Effects of theracurmin on oxidative stress in HFD-fed mice. Measurement of hepatic MDA and GSH contents in the liver from mice of each group. Data were expressed as mean ± SEM statistically analyzed by Q-test and LSD-test methods. Significant versus normal control, ##p< 0.01; significant versus HFD-fed group, *p< 0.05; **p< 0.01 (n = 10). G1: ND (normal saline), n = 10; G2: HFD + vehicle (normal saline), n = 10; G3: HFD + theracurmin (500 mg/kg/day), n = 10; G4: HFD + theracurmin (1,000 mg/kg/day), n = 10; G5: HFD + theracurmin (2,000 mg/kg/day), n = 10; G6: HFD + reference control (silymarin 25 mg/kg/day), n = 10.
  1. Browning, JD, and Horton, JD (2004). Molecular mediators of hepatic steatosis and liver injury. J Clin Invest. 114, 147-152.
    Pubmed KoreaMed CrossRef
  2. Friedman, SL, Neuschwander-Tetri, BA, Rinella, M, and Sanyal, AJ (2018). Mechanisms of NAFLD development and therapeutic strategies. Nat Med. 24, 908-922.
    Pubmed KoreaMed CrossRef
  3. Birkenfeld, AL, and Shulman, GI (2014). Nonalcoholic fatty liver disease, hepatic insulin resistance, and type 2 diabetes. Hepatology. 59, 713-723.
    Pubmed KoreaMed CrossRef
  4. Marra, F, Gastaldelli, A, Svegliati Baroni, G, Tell, G, and Tiribelli, C (2008). Molecular basis and mechanisms of progression of non-alcoholic steatohepatitis. Trends Mol Med. 14, 72-81.
    Pubmed CrossRef
  5. Kotronen, A, and Yki-Jarvinen, H (2008). Fatty liver: a novel component of the metabolic syndrome. Arterioscler Thromb Vasc Biol. 28, 27-38.
    Pubmed CrossRef
  6. Rinella, ME (2015). Nonalcoholic fatty liver disease: a systematic review. JAMA. 313, 2263-2273.
    Pubmed CrossRef
  7. Sunagawa, Y, Hirano, S, Katanasaka, Y, Miyazaki, Y, Funamoto, M, Okamura, N, Hojo, Y, Suzuki, H, Doi, O, Yokoji, T, Morimoto, E, Takahashi, T, Ozawa, H, Imaizumi, A, Ueno, M, Kakeya, H, Shimatsu, A, Wada, H, Hasegawa, K, and Morimoto, T (2015). Colloidal submicron-particle curcumin exhibits high absorption efficiency-a double-blind, 3-way crossover study. J Nutr Sci Vitaminol. 61, 37-44.
    Pubmed CrossRef
  8. Ohno, M, Nishida, A, Sugitani, Y, Nishino, K, Inatomi, O, Sugimoto, M, Kawahara, M, and Andoh, A (2017). Nanoparticle curcumin ameliorates experimental colitis via modulation of gut microbiota and induction of regulatory T cells. PLoS ONE. 12, e0185999.
    Pubmed KoreaMed CrossRef
  9. Farzaei, MH, Zobeiri, M, Parvizi, F, El-Senduny, FF, Marmouzi, I, Coy-Barrera, E, Naseri, R, Nabavi, SM, Rahimi, R, and Abdollahi, M (2018). Curcumin in liver diseases: a systematic review of the cellular mechanisms of oxidative stress and clinical perspective. Nutrients. 10, E855.
    Pubmed KoreaMed CrossRef
  10. Maria, M, Eleni, P, George, V, Eftychia, T, and Constantinos, G (2018). Effects of curcumin consumption on human chronic diseases: A narrative review of the most recent clinical data. Phytother Res. 32, 957-975.
    Pubmed CrossRef
  11. Imaizumi, A (2015). Highly bioavailable curcumin (Theracurmin): its development and clinical application. Pharma-Nutrition. 3, 123-130.
    Pubmed KoreaMed CrossRef
  12. Ding, L, Li, J, Song, B, Xiao, X, Zhang, B, Qi, M, Huang, W, Yang, L, and Wang, Z (2016). Curcumin rescues high fat diet-induced obesity and insulin sensitivity in mice through regulating SREBP pathway. Toxicol Appl Pharmacol. 304, 99-109.
    Pubmed CrossRef
  13. Shao, W, Yu, Z, Chiang, Y, Yang, Y, Chai, T, Foltz, W, Lu, H, Fantus, IG, and Jin, T (2012). Curcumin prevents high fat diet induced insulin resistance and obesity via attenuating lipogenesis in liver and inflammatory pathway in adipocytes. PLoS ONE. 7, e28784.
    Pubmed KoreaMed CrossRef
  14. Sasaki, H, Sunagawa, Y, Takahashi, K, Imaizumi, A, Fukuda, H, Hashimoto, T, Wada, H, Katanasaka, Y, Kakeya, H, Fujita, M, Hasegawa, K, and Morimoto, T (2011). Innovative preparation of curcumin for improved oral bioavailability. Biol Pharm Bull. 34, 660-665.
    Pubmed CrossRef
  15. Cuomo, J, Appendino, G, Dern, AS, Schneider, E, McKinnon, TP, Brown, MJ, Togni, S, and Dixon, BM (2011). Comparative absorption of a standardized curcuminoid mixture and its lecithin formulation. J Nat Prod. 74, 664-669.
    Pubmed CrossRef
  16. Gota, VS, Maru, GB, Soni, TG, Gandhi, TR, Kochar, N, and Agarwal, MG (2010). Safety and pharmacokinetics of a solid lipid curcumin particle formulation in osteosarcoma patients and healthy volunteers. J Agric Food Chem. 58, 2095-2099.
    Pubmed CrossRef
  17. Sunagawa, Y, Wada, H, Suzuki, H, Sasaki, H, Imaizumi, A, Fukuda, H, Hashimoto, T, Katanasaka, Y, Shimatsu, A, Kimura, T, Kakeya, H, Fujita, M, Hasegawa, K, and Morimoto, T (2012). A novel drug delivery system of oral curcumin markedly improves efficacy of treatment for heart failure after myocardial infarction in rats. Biol Pharm Bull. 35, 139-144.
    Pubmed CrossRef
  18. Cichoz-Lach, H, and Michalak, A (2014). Oxidative stress as a crucial factor in liver diseases. World J Gastroenterol. 20, 8082-8091.
    Pubmed KoreaMed CrossRef
  19. Oner-Iyidogan, Y, Kocak, H, Seyidhanoglu, M, Gurdol, F, Gulcubuk, A, Yildirim, F, Cevik, A, and Uysal, M (2013). Curcumin prevents liver fat accumulation and serum fetuin-A increase in rats fed a high-fat diet. J Physiol Biochem. 69, 677-686.
    Pubmed CrossRef
  20. Liu, Y, Cheng, F, Luo, Y, Zhan, Z, Hu, P, Ren, H, Tang, H, and Peng, M (2017). PEGylated curcumin derivative attenuates hepatic steatosis via CREB/PPAR-gamma/CD36 pathway. BioMed Res Int. 2017, 8234507.
    Pubmed KoreaMed CrossRef
  21. Greenberg, AS, Coleman, RA, Kraemer, FB, McManaman, JL, Obin, MS, Puri, V, Yan, QW, Miyoshi, H, and Mashek, DG (2011). The role of lipid droplets in metabolic disease in rodents and humans. J Clin Invest. 121, 2102-2110.
    Pubmed KoreaMed CrossRef
  22. Ioannou, GN (2016). The role of cholesterol in the pathogenesis of NASH. Trends Endocrinol Metab. 27, 84-95.
    Pubmed CrossRef
  23. Walenbergh, SM, and Shiri-Sverdlov, R (2015). Cholesterol is a significant risk factor for non-alcoholic steatohepatitis. Expert Rev Gastroenterol Hepatol. 9, 1343-1346.
    Pubmed CrossRef
  24. Shimano, H, and Sato, R (2017). SREBP-regulated lipid metabolism: convergent physiology - divergent pathophysiology. Nat Rev Endocrinol. 13, 710-730.
    Pubmed CrossRef
  25. Yang, JW, Kim, HS, Im, JH, Kim, JW, Jun, DW, Lim, SC, Lee, K, Choi, JM, Kim, SK, and Kang, KW (2016). GPR119: a promising target for nonalcoholic fatty liver disease. FASEB J. 30, 324-335.
  26. Moore, KJ, Rayner, KJ, Suarez, Y, and Fernandez-Hernando, C (2011). The role of microRNAs in cholesterol efflux and hepatic lipid metabolism. Annu Rev Nutr. 31, 49-63.
    Pubmed KoreaMed CrossRef
  27. Tariq, Z, Green, CJ, and Hodson, L (2014). Are oxidative stress mechanisms the common denominator in the progression from hepatic steatosis towards non-alcoholic steatohepatitis (NASH)?. Liver Int. 34, e180-e190.
    Pubmed CrossRef
  28. Rolo, AP, Teodoro, JS, and Palmeira, CM (2012). Role of oxidative stress in the pathogenesis of nonalcoholic steatohepatitis. Free Radic Biol Med. 52, 59-69.
    Pubmed CrossRef
  29. Spahis, S, Delvin, E, Borys, JM, and Levy, E (2017). oxidative stress as a critical factor in nonalcoholic fatty liver disease pathogenesis. Antioxid Redox Signal. 26, 519-541.
    Pubmed CrossRef
  30. Negre-Salvayre, A, Auge, N, Ayala, V, Basaga, H, Boada, J, Brenke, R, Chapple, S, Cohen, G, Feher, J, Grune, T, Lengyel, G, Mann, GE, Pamplona, R, Poli, G, Portero-Otin, M, Riahi, Y, Salvayre, R, Sasson, S, Serrano, J, Shamni, O, Siems, W, Siow, RCM, Wiswedel, I, Zarkovic, K, and Zarkovic, N (2010). Pathological aspects of lipid peroxidation. Free Radic Res. 44, 1125-1171.
    Pubmed CrossRef
  31. Wei, QY, Chen, WF, Zhou, B, Yang, L, and Liu, ZL (2006). Inhibition of lipid peroxidation and protein oxidation in rat liver mitochondria by curcumin and its analogues. Biochim Biophys Acta. 1760, 70-77.
    Pubmed CrossRef
  32. Scapagnini, G, Vasto, S, Abraham, NG, Caruso, C, Zella, D, and Fabio, G (2011). Modulation of Nrf2/ARE pathway by food polyphenols: a nutritional neuroprotective strategy for cognitive and neurodegenerative disorders. Mol Neurobiol. 44, 192-201.
    Pubmed KoreaMed CrossRef
  33. Yang, C, Zhang, X, Fan, H, and Liu, Y (2009). Curcumin upregulates transcription factor Nrf2, HO-1 expression and protects rat brains against focal ischemia. Brain Res. 1282, 133-141.
    Pubmed CrossRef
  34. He, H-J, Wang, G-Y, Gao, Y, Ling, W-H, Yu, Z-W, and Jin, T-R (2012). Curcumin attenuates Nrf2 signaling defect, oxidative stress in muscle and glucose intolerance in high fat diet-fed mice. World J Diabetes. 3, 94.
    Pubmed KoreaMed CrossRef



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