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| BASIC RESEARCH |
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| Year : 2018 | Volume
: 8
| Issue : 3 | Page : 137-141 |
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Antioxidant and antiglycation properties of two mango (Mangifera indica L.) cultivars from Senegal
Samba Fama Ndoye1, Didier Fraisse2, Blandine Akendengué3, Mbaye Diaw Dioum1, Rokhaya Sylla Gueye1, Cheikh Sall4, Insa Seck1, Catherine Felgines2, Matar Seck1, François Senejoux2
1 Laboratory of Organic and Therapeutic Chemistry, Faculty of Medicine, Pharmacy and Odontology, Cheikh Anta Diop University. PB 5005 Dakar- Fann, Sénégal
2 Université Clermont Auvergne, INRA, UNH, F-63000 Clermont-Ferrand, France
3 Department of Pharmacology and Toxicology, Faculty of Medicine and Health Sciences (USS). PB 4009 Libreville, Gabon
4 Laboratory of Chemistry, Training and Research Unit of Health, Thiès University. PB 967 Thiés, Sénégal
| Date of Submission | 14-Nov-2017 |
| Date of Decision | 29-Dec-2017 |
| Date of Acceptance | 03-Jan-2018 |
| Date of Web Publication | 21-Mar-2018 |
Correspondence Address:
François Senejoux
Université Clermont Auvergne, INRA, UNH, F-63000 Clermont-Ferrand
France
 Source of Support: None, Conflict of Interest: None  | 4 |
DOI: 10.4103/2221-1691.227994
Objective: To evaluate the total phenolic contents, antioxidant and antiglycation activities of leaves, barks, roots and kernels from two cultivars of Mangifera indica (Anacardiaceae). Methods: Total phenolic contents were determined by using Folin-Ciocalteu's method. The antioxidant activities were assessed by three different protocols including DPPH, oxygen radical absorbance capacity and iron (II) chelation assays. In addition, in vitro bovine serum albumin/D-ribose assay was chosen to evaluate the antiglycation properties of the extracts. Results: All the investigated extracts were found to contain high level of total phenols as well as potent antioxidant activities. Kernel extracts showed the highest total phenol contents and DPPH radical scavenging activities whereas higher oxygen radical absorbance capacity values were observed for leave, root and bark extracts. Besides, extracts from leaves, roots and barks from both cultivars exhibited potent inhibitory effects against the formation of advanced glycation end products, with IC50 values lower than the standard positive control aminoguanidine. Conclusions: The potent antiglycation and antioxidative activities of these two Mangifera indica cultivars suggest a possible role in targeting aging, diabetic complications and oxidative stress related diseases.
Keywords: Mangifera indica, Cultivars, Polyphenols, Antioxidant, Antiglycation
How to cite this article:
Ndoye SF, Fraisse D, Akendengué B, Dioum MD, Gueye RS, Sall C, Seck I, Felgines C, Seck M, Senejoux F. Antioxidant and antiglycation properties of two mango (Mangifera indica L.) cultivars from Senegal. Asian Pac J Trop Biomed 2018;8:137-41 |
How to cite this URL:
Ndoye SF, Fraisse D, Akendengué B, Dioum MD, Gueye RS, Sall C, Seck I, Felgines C, Seck M, Senejoux F. Antioxidant and antiglycation properties of two mango (Mangifera indica L.) cultivars from Senegal. Asian Pac J Trop Biomed [serial online] 2018 [cited 2023 Jun 5];8:137-41. Available from: https://www.apjtb.org/text.asp?2018/8/3/137/227994 |
| 1. Introduction | |  |
Mangifera indica (M. indica) L. (Anacardiaceae) is a large tree native from tropical Asia. Its leaves are spirally arranged on branches and its fruit is a popular edible drupe that contains a solitary seed covered by a fibrous endocarp[1]. Of interest, fruits, seeds, pulp, bark, leaves and roots are widely employed as traditional medications. For instance, seeds are employed as astringent to the bowels and leaves are used to treat piles. Besides, the ripe fruit and the bark are respectively used to treat constipation and diarrhea[2]. In African traditional medicine, water infusion of M. indica leaves can also be employed for its antiplasmodial and antipyretic properties[3]. Of note, numerous biological activities have been reported for this plant including antidiarrheal[4], immunomodulatory[5], bactericidal[6], antiviral[7] and anti-inflammatory properties[8].
The chemical composition of M. indica has been widely investigated over the past and numerous terpenoid constituents have been reported including sterols, triterpenes and carotenoids. In addition, phytochemical analyses of this species have led to the characterization of a wide diversity of phenolic components including flavonoids, phenolic acids, gallotannins, benzophenones as well as xanthones such as mangiferin[9].
It is now well established that phenolic constituents are highly implicated in the health benefits of plant food products consumption[10]. Owing to their hydroxyl substituents and aromatic rings, they exert a major role as antioxidants and are capable of protecting human organism against the deleterious effect of reactive oxygen species and free radicals[11]. Overproduction of such species can result in oxidative stress which is contributing to the development of numerous degenerative diseases including chronic inflammation and several type of cancers[12]. Increasing attention has been thus directed towards antioxidant capacity of natural phenolics compounds because of their potential nutritional and therapeutic value[13]. It has to be noted that several studies have also highlighted that some phenolic compounds can be regarded as promising agents for the prevention of Advanced Glycation End products (AGEs) formation[14]. AGEs can be defined as altered proteins that become non-enzymatically glycated after reaction with aldose sugars[15]. By inducing protein dysfunction and cell damages, AGEs accumulation is involved in the course of ageing. In addition, AGEs are also increased and play a key role in the development of atherosclerosis, neurodegenerative diseases as well as diabetic complications[16]. Inhibition of AGEs formation represents thus an attractive preventive and therapeutic target.
It has been clearly shown that qualitative and quantitative phenolic composition of mangoes strongly differs among cultivars, parts and environmental conditions[17]. In addition, there is a lack of chemical and biological data about numerous Senegalese varieties of M. indica. Therefore, the present study aimed at evaluating total phenolics as well as antioxidant and antiglycation activities of four different parts (leaves, stem barks, roots and kernels) of Sewe and Bouka varieties, two major mango cultivars grown in Senegal.
| 2. Materials and methods | | |
2.1. Reagents
Methanol, Folin-Ciocalteu's reagent, bovine serum albumin (BSA), D-ribose, aminoguanidine hydrochloride, gallic acid, 1,1-diphenyl- 2-picryl-hydrazyl (DPPH), Trolox, fluorescein, 2,2'-azobis(2- methylpropionamidine) dihydrochloride, Iron (II) chloride and ferrozine were bought from Sigma-Aldrich (Saint-Quentin Fallavier, France). Ethylenediaminetetraacetic acid disodium salt (EDTA) was purchased from Fisher Chemical (Illkirch, France).
2.2. Plant materials
Leaves, stem barks, roots and kernels of two varieties (Sewe and Bouka) of M. indica L. were obtained from cultivated trees at Diender, Senegal, in July 2016. A sample of each part of the investigated plants was deposited in a laboratory herbarium (Laboratory of Pharmacognosy, Faculty of Medicine, Pharmacy and Odontology from University Cheikh Anta Diop of Dakar, Senegal). Plant material was shade dried with ventilation for six weeks, then powdered using a mechanical grinder.
2.3. Preparation of extracts
For each extract, 100 g of plant material were extracted twice with methanol (500 mL) for 48 h at room temperature and under magnetic agitation. After filtration, methanol was removed under reduced pressure and the dried extracts were stored at 4 °C before analyses.
2.4. Total phenolic content (TPC)
TPC was evaluated according to the method of Folin and Ciocalteu[18], with slight modifications as previously reported[19]. A standard curve of gallic acid in the range of 30 μΜ to 470 μΜ was performed (R2 = 0.997 9, y = 4.393 7x + 0.021). Total phenolic content was expressed as mg of gallic acid equivalents per g (mg GAE/g) of extract. All analyses were performed in triplicate and results were indicated as means±SEM.
2.5. Antioxidant activity
2.5.1. DPPH radical-scavenging activity assay
DPPH scavenging activity was evaluated as previously described by Meda et al[l9]. A standard curve of Trolox in the range of 0.1 mM to 6 mM was constructed (R2 = 0.997 8, y = 1 101.1x + 1.519 6) and results were indicated as μmol of Trolox equivalents per g (μmol TE/g) of extract.
2.5.2. Oxygen radical absorbance capacity (ORAC) assay
The assay was done in 96-well plates with a final volume of 200 μL as previously reported[19]. ORAC values were determined using the respective area under the curve (AUC) and the regression equation between Trolox equivalents and the net AUC (concentration of Trolox in the range of 3 μΜ to 100 μΜ, R2 = 0.990 4, y = 35.63x + 11.26). The results were presented as μmol TE/g of extract.
2.5.3. Iron (II) chelating activity
Metal chelating activities were measured following the protocol of Wang et al[20]. A standard curve of EDTA in the range of 8 μΜ to 135 μΜ was performed (R2 = 0.986, y = 6 648x + 10.252). The results were indicated as μg of EDTA equivalents per g (μg EDTAE/g) of extract.
2.6. Advanced glycation end products (AGEs) assay
Inhibition of AGEs formation was evaluated as previously described by Derbré et al[21], with slight adjustments. Reaction solution (100 μL) was prepared by mixing 20 μL of each plant extract (0.05 to 1 mg/mL), 40 μL of 25 mg/mL BSA and 40 μL of 120 mM D-(-)-ribose in a phosphate buffer (50 mM, pH = 7.4). This mixture was incubated at 37 °C for 24 h in the dark in 96-well microtiter plates before AGEs fluorescence evaluation. AGEs fluorescence was monitored on a microplate reader (TECAN infinite F200 PRO) using 370 and 440 nm as the excitation and emission wavelengths, respectively. Aminoguanidine was employed as positive control and results were presented as IC50 values in μg/mL.
| 3. Results | | |
3.1. Total phenolic content
As shown in [Figure 1], substantial TPC was determined for all the studied extracts. With respective values of (546±1) mg GAE/g and (489±3) mg GAE/g of extract, Sewe kernel extract (SKE) and Bouka kernel extract (BKE) were shown to possess the highest phenolic contents, indicating that kernel is the richest source of phenolics for both varieties.
3.2. Antioxidant activity
3.2.1. DPPH radical-scavenging assay
As indicated in [Table 1], DPPH scavenging activity of the extracts ranged between (1 702±108) and (5 510±6) μmol TE/g. Once again, kernels exhibited the highest activities with values of (4 980±50) μmol TE/g and (5 510±6 μmol) TE/g for SKE and BKE, respectively. Conversely, extracts from leaves and stem bark from Bouka were shown to be the least effective ones with values lower than 2 000 μmol TE/g. | Table 1. DPPH radical scavenging activity, ORAC value, iron (II) chelating activity and extraction yield of extracts from Sewe and Bouka cultivars.
Click here to view |
3.2.2. ORAC assay
As shown in [Table 1], sample ORAC values varied noticeably from (1 257±26) to (6 335±176) μmol TE/g. Of interest, the highest activity was exerted by Sewe leaves extract (SLE) whereas SKE and BKE were found to possess the lowest ORAC values.
3.2.3. Iron (II) chelating activity
Iron (II) chelating activity of the different extracts was presented in [Table 1]. With a value higher than 10 000 μg EDTAE/g, Sewe stem bark extract (SSBE) was shown to possess very potent Fe2+ chelating ability [(10 593±4) μg EDTAE/g]. On the contrary, roots from Bouka cultivar were shown to induce only moderate metal chelating effects [(2 617±0.4) μg EDTAE/g].
3.3. AGEs assay
In this study, a BSA/D-ribose model was adopted to assess antiglycation effects of M. indica extracts. Our data indicated that roots, leaves and stem barks extracts of both varieties exerted noticeable antiglycation effects, with IC50 values lower than the standard positive control aminoguanidine [(259±7) μg/mL]. Of interest, SSBE and Sewe root extracts (SRE) displayed the most potent inhibitory activities, with respective IC50 values of (145±5) and (147±3) μg/mL. As attested by their respective IC50 values of (165±2) and (185±10) μg/mL, leave extracts from Sewe and Bouka cultivars were also shown to strongly inhibit the formation of AGEs. By contrast, with IC50 values higher than 500 μg/mL, kernel extracts of the two studied varieties were found to be almost ineffective in blocking AGEs formation.
| 4. Discussion | | |
The present results demonstrate that all parts from the two investigated varieties of M. indica possess high contents of phenolic compounds. Phenolic constituents are well known to be main contributors to antioxidant capacities in plant extracts and are considered as the most predominant antioxidant phytochemicals[22]. Owing to their reactivity as electron or hydrogen-donating agents and metal ion chelating activities, these compounds can exert positive effects on oxidative stress[23],[24]. The potent antioxidant properties of the studied extracts were highlighted by three different spectrometric assays. For both varieties, kernels were shown to exert the highest DPPH radical scavenging activity. Conversely, leaves, stem barks and roots of the two varieties possessed higher ORAC values. In addition, potent Fe2+ chelating effects were observed for all studied parts including stem bark of Sewe cultivars which had remarkable high activity.
Discrepancies between antioxidant potency of the different organs found with the three methods can be largely explained by the different principle of the assays. DPPH radical scavenging is one of the most widely employed antioxidant method for plant samples. This assay is mainly based on single electron transfer of antioxidants to neutralize DPPH radical[25]. The reaction leads to the discoloration of the purple-colored DPPH radical which is an indicator of the antioxidant efficacy[26]. ORAC assay is regarded as a relevant protocol for evaluating antioxidant activity of biological samples and foodstuffs[27]. By contrast with DPPH assay, deactivation of radical species is considered to be related to a hydrogen atom transfer mechanism[28]. DPPH and ORAC can be thus regarded as distinct and complementary evaluations that reflect the two major mechanisms leading to radical deactivation, single electron transfer and hydrogen atom transfer. Besides these two radical scavenging assays, metal chelating capacity can be also used as an indicator of antioxidant activity. Indeed, Fenton reaction, which involves transition-metal ions such as Fe2+, is an important source of hydroxyl radical, a highly reactive oxygen species[29]. Furthermore, differences in the observed activities can be also explained by disparities in the chemical composition of the organs. Indeed, previous chemical analyses of various M. indica parts indicated that benzophenone and xanthone derivatives represent the major phenolics in leaves as well as in bark, iriflophenone 3-C- β -D-glucoside and mangiferin being the two most abundant compounds in the majority of the studied varieties[30]. Conversely, it has been reported that M. indica kernels mostly contain gallotannin derivatives, with penta-O-galloyl- glucoside as the major one. Of interest, this compound has been previously shown to only exert moderate radical scavenging activities when submitted to ORAC evaluation[30] while mangiferin and iriflophenone 3-C- β-D-glucoside are both known to give excellent results with that assay[31]. Taken together, these data tend to explain why, in the present study, kernel extracts possess the lowest ORAC values despite being the richest source of phenolic compounds.
It is now well established that AGEs have a significant role in ageing process as well as in numerous degenerative diseases[32]. Inhibition of the formation of these harmful products is now regarded as an attractive preventive or therapeutic target[33] and increasing attention is recently being given to the evaluation of plant extracts and phytochemicals as antiglycating agents. Of interest, a substantial number of natural phenolic compounds have been identified as potent inhibitors of AGEs formation[21],[34],[35]. However, it has to be noted that only limited data are available regarding the antiglycation activity of M. indica. Flesh and peel extracts of mango[36],[37] have been reported to possess significant anti- AGEs properties. In addition, the antiglycation potential of mango leaves has also been recently documented[38]. However, to our knowledge, no data are available concerning kernels, bark and roots. Furthermore, the present study constitutes the first evaluation taking into account intraspecific variability of M. indica. By using a BSA/ D-ribose system, our experiments established that kernels of both cultivars induced only weak inhibitory effect on AGEs formation. Conversely, leaves of Sewe and Bouka cultivars possess strong anti- AGEs activities with IC50 values lower than the reference compound aminoguanidine. The present data also demonstrate for the first time the pronounced interest of M. indica roots and bark as antiglycating agents, as attested by the particularly low IC50 value of Sewe cultivar bark extract. It is important to note that xanthone and benzophenone derivatives have been reported to exert potent anti-glycation effects[38]. They might be thus be regarded as important contributors to the anti-AGEs properties of the studied extracts. Such assumption is further supported by the weak effects of kernel extracts. Indeed, several studies have previously shown that this organ only contains traces of such kind of phenolic compounds[30].
The present study attests that the two investigated M. indica cultivars are substantially rich in phenolic constituents and exhibit powerful antioxidant effects. In addition, it demonstrates that their roots, leaves and barks also exert potent antiglycation activities. These results thus suggest that Sewe and Bouka cultivars of M. indica can be regarded as potential nutraceutical resources to prevent oxidative stress and carbonyl stress related disorders.
Conflict of interest statement
The authors declare that there is no conflict of interest.
Acknowledgments
The authors would like to express their profound gratitude to the service of cooperation and cultural action of the embassy of France in Dakar for the financial support.
| References | | |
| 1. | Shah KA, Patel ΜΒ, Patel RJ, Parmar PK. Mangifera indica (Mango). Pharmacogn Rev 2010; 4(7): 42-48.  |
| 2. | Chowdhury S, Poddar SK, Zaheen S, Noor FA, Ahmed N, Haque S, et al. Phytochemical screening and evaluation of cytotoxic and hypoglycemic properties of Mangifera indica peels. Asian Pac J Trop Biomed 2017; 7(1): 49-52. |
| 3. | Adeneye AA, Awodele O, Aiyeola SA, Benebo AS. Modulatory potentials of the aqueous stem bark extract of Mangifera indica on carbon tetrachloride-induced hepatotoxicity in rats. J Tradit Complement Med 2015; 5(2): 106-115. |
| 4. | Sairam K, Hemalatha S, Kumar A, Srinivasan T, Ganesh J, Shankar M, et al. Evaluation of anti-diarreal activity in seed extracts of Mangifera indica. J Ethnopharmacol 2003; 84: 11-15. |
| 5. | Makare N, Bodhankar S, Rangari V. Immunomodulatory activity of alcoholic extract of Mangifera indica L. in mice. J Ethnopharmacol 2001; 78: 133-137. |
| 6. | Nkuo-Akenji T, Ndip R, McThomas A, Fru EC. Anti-Salmonella activity of medicinal plants from Cameroon. Cent Afr J Med 2001; 47: 155-158. |
| 7. | Yoosook C, Bunyapraphatsara N, Boonyakiat Y, Kantasuk C. Antiherpes simplex virus activities of crude water extracts of Thai medicinal plants. Phytomedicine 2000; 6(6): 411-419. |
| 8. | Garrido G, Gonzalez D, Delporte C, Backhouse N, Quintero G, Nunez- Selles AJ, et al. Analgesic and anti-inflammatory effects of Mangifera indica L. extract (vimang). Phytother Res 2001; 15: 18-21. |
| 9. | Dorta E, Lobo MG, González M. Using drying treatments to stabilize mango peel and seed: effect on antioxidant activity. LWT-Food Sci Techno¡ 2012; 45(2): 261-268. |
| 10. | Pandey KB, Rizvi SI. Plant polyphenols as dietary antioxidants in human health and disease. Oxid Med Cell Longev 2009; 2(5): 270-278. |
| 11. | Halake K, Birajdar M, Lee J. Structural implications of polyphenolic antioxidants. J Ind Eng Chem 2016; 35: 1-7. |
| 12. | Reuter S, Gupta SC, Chaturvedi MM, Aggarwal BB. Oxidative stress, inflammation, and cancer: how are they linked? Free Radic Biol Med 2010; 49:1603-1616. |
| 13. | Ajila CM, Naidu KA, Bhat SG, Rao UJSP. Bioactive compounds and antioxidant potential of mango peel extract. Food Chem 2007; 105: 982988. |
| 14. | Mildner-Szkudlarz S, Siger A, Szwengiel A, Przygonski K, Wojtowicz E, Zawirska-Wojtasiak R. Phenolic compounds reduce formation of N s -(carboxymethyl)lysine and pyrazines formed by Maillard reactions in a model bread system. Food Chem 2017; 231: 175-184. |
| 15. | Yoon SR, Shim SM. Inhibitory effect of polyphenols in Houttuynia cordata on advanced glycation end-products (AGEs) by trapping methylglyoxal. LWT-Food Sci Technol 2015; 61: 158-163. |
| 16. | Kaewnarin K, Shank L, Niamsup H, Rakariyatham N. Inhibitory effects of Lamiaceae plants on the formation of advanced glycation end-products (AGEs) in model proteins. J Med Bioeng 2013; 2(4): 224-227. |
| 17. | Dorta E, González M, Lobo MG, Sánchez-Moreno C, Ancos B. Screening of phenolic compounds in by-product extracts from mangoes (Mangifera indica L.) by HPLC-ESI-QTOF-MS and multivariate analysis for use as a food ingredient. Food Res Int 2014; 57: 51-60. |
| 18. | Folin O, Ciocalteu V. On tyrosine and tryptophane determinations in proteins. J Biol Chem 1927; 73(2): 627-650. |
| 19. | Meda NR, Fraisse D, Gnoula C, Vivier M, Felgines C, Senejoux F. Characterization of antioxidants from Detarium microcarpum Guill. et Perr. leaves using HPLC-DAD coupled with pre-column DPPH assay. Eur Food Res Technol 2017; 243: 1659-1666. |
| 20. | Wang T, Jónsdóttir R, Ólafsdóttir G. Total phenolic compounds, radical scavenging and metal chelation of extracts from Icelandic seaweeds. Food Chem 2009; 116: 240-248. |
| 21. | Derbré S, Gatto J, Pelleray A, Coulon L, Séraphin D, Richomme P. Automating a 96-well microtiter plate assay for identification of AGEs inhibitors or inducers: Application to the screening of a small natural compounds library. Anal Bioanal Chem 2010; 398: 1747-1758. |
| 22. | Tabart J, Kevers C, Pincemail J, Defraigne JO, Dommes J. Comparative antioxidant capacities of phenolic compounds measured by various tests. Food Chem 2009; 113: 1226-1233. |
| 23. | Rice-Evans CA, Miller NJ, Paganga G. Structure antioxidant activity relationship of flavonoids and phenolic acids. Free Radic Biol Med 1996; 20: 933-936. |
| 24. | Zhang H, Tsao R. Dietary polyphenols, oxidative stress and antioxidant and anti-inflammatory effects. Curr Opin Food Sci 2016; 8: 33-42. |
| 25. | Magalhaes LM, Segundo MA, Reis S, Lima JLFC. Methodological aspects about in vitro evaluation of antioxidant properties. Anal Chim Acta 2008; 613(1): 1-19. |
| 26. | Molyneux P. The use of the stable free radical diphenylpicryl- hydrazyl (DPPH) for estimating antioxidant activity. Songklanakarin J Sci Technol 2004; 26(2): 211-219. |
| 27. | Cao G, Alessio HM, Cutler RG. Oxygen-radical absorbance capacity assay for antioxidants. Free Radic Biol Med 1993; 14(3): 303-311. |
| 28. | Prior RL. Oxygen radical absorbance capacity (ORAC): New horizons in relating dietary antioxidants/bioactives and health benefits. J Funct Foods 2015; 18: 797-810. |
| 29. | Andjelkovi M, Camp JV, Meulenaer BD, Depaemelaere G, Socaciu C, Verloo M, et al. Iron-chelation properties of phenolic acids bearing catechol and galloyl groups. Food Chem 2006; 98: 23-31. |
| 30. | Barreto JC, Trevisan MTS, Hull WE, Erben G, de Brito ES, Pfundstein B, et al. Characterization and quantitation of polyphenolic compounds in bark, kernel, leaves, and peel of mango (Mangifera indica L.). J Agric Food Chem 2008; 56(14): 5599-5610. |
| 31. | Malherbe CJ, Willenburg E, de Beer D, Bonnet SL, van der Westhuizen JH, Joubert E. Iriflophenone-3-C-glucoside from Cyclopia genistoides: Isolation and quantitative comparison of antioxidant capacity with mangiferin and isomangiferin using on-line HPLC antioxidant assays. J Chromatogr B Analyt Technol Biomed Life Sci 2014; 951-952(1): 164171. |
| 32. | Liping S, Xuejiao S, Yongliang Z. Preparation, characterization and antiglycation activities of the novel polysaccharides from Boletus snicus. Int J Biol Macromol 2016; 92: 607-614. |
| 33. | Yeh WJ, Hsia SM, Lee WH, Wu CH. Polyphenols with antiglycation activity and mechanisms of action: A review of recent findings. J Food Drug Anal 2017; 25: 84-92. |
| 34. | Chen H, Virk MS, Chen F. Phenolic acids inhibit the formation of advanced glycation end products in food simulation systems depending on their reducing powers and structures. Int J Food Sci Nutr 2016; 67(4): 400-411. |
| 35. | Tan D, Wang Y, Lo CY, Ho CT. Methylglyoxal: Its presence and potential scavengers. Asia Pac J Clin Nutr 2008; 17: 261-264. |
| 36. | Gondi M, Basha SA, Salimath PV, Rao UJSP. Supplementation of mango (Mangifera indica L.) peel in diet ameliorates cataract in streptozotocin- induced diabetic rats: mango peel ameliorates cataract in diabetic rats. J Food Biochem 2017; 41(1): 1-13. |
| 37. | Lauricella M, Emanuele S, Calvaruso G, Giuliano M, D'Anneo A. Multifaceted health benefits of Mangifera indica L. (mango): The inestimable value of orchards recently planted in Sicilian rural areas. Nutrients 2017; 9: 1-14. |
| 38. | Itoh K, Murata K, Sakaguchi N, Akai K, Yamaji T, Shimizu K, et al. Inhibition of advanced glycation end-products formation by Mangifera indica leaf extract. J Plant Stud 2017; 6(2): 102-107. |
[Figure 1]
[Table 1]
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