Effect of Steam Tomato Extract in Renal and Hepar Rats Loading Alloxan and Fat-Rich Diet
Ni Kadek Warditiani1*, I Made Agus Gelgel Wirasuta1,2, Ni Luh Cintya Darmia Putri1,2,
Ni Nyoman Fitria Widianti1,2, Ni Kadek Sriani1,2
1Department of Pharmacy, Mathematics and Natural Science Faculty, Udayana University, Indonesia.
2Institute Forensic Science and Criminatology, Udayana University, Bali, Indonesia 80361.
*Corresponding Author E-mail: kadektia@unud.ac.id
ABSTRACT:
To evaluate the effect of steam tomato extract in hepar and renal organs in rats loaded with alloxan and fat-rich diet. Negative and extract group rats were loading alloxan 100mg/kg BW (giving once) and fat-rich diet for 30 days. Next step, only extract rat group was given 10mg tomato extract for 14 days, and then their hepar and renal morphology were observed. Hepar and renal organ preparation colored with HE dyes. Normal and negative rats’ renal and hepar morphology were compared to rats which loaded with alloxan, fat-rich diet and extract. Glomerulus size of the negative renal group was wider than the other group. The steam tomato extract could reduce glomerulus size like normal rats. Hepar of negative group rats appears much fatty accumulation. The steam tomato extract could reduce fatty accumulation like normal rats. This effect may cause chemical compounds of extract, ie lycopene, vitamin c, and carotene. It could conclude that the administration 10mg steam tomato extracts for 14 days could protect hepar and renal were loaded alloxan and fat-rich diet.
KEYWORDS: steam tomato extract, hepar, renal, protect, safe.
INTRODUCTION:
Alloxan is a chemical compound that causes an increase in free radicals. Alloxan intake causes the accumulation of free radicals in cells that will damage the tissue. The tissue in the renal will be damaged if there are reabsorption and excretion of toxic compounds5. Fat-rich food will be able to cause fat accumulation both in the blood and in the hepar tissue.
The high fat intake will be able to aggravate the work of the renal and hepar organs. All compounds that enter the body will metabolize and eliminated through the renal or hepar. Fatty hepar usually dominated by people with hypercholesterolemia and obesity6. This research is fascinating, to see the effect of tomato extract to protect the hepars and renals.
MATHERIAL AND METHOD:
Material: tomato extract, olive oil, Wistar strain male rats, rat feed, water, lard, yolk, alloxan
Animal test:
Test rats were acclimated for 7 days. Test rats were grouped into 3 groups:
1. Rat given tomato fruit extract at a dose of 10mg/rat: rats that were loaded with alloxan once and fat-rich feed for 30 days were given tomato extract at a dose of 10mg/rat for 2 weeks
2. Rat loaded with alloxan and fat-rich feed: rat loaded with alloxan once and fat-rich feed for 6 weeks
3. Normal control rat: rat given standard feed and sufficient water
At the end of the treatment, rat was sacrifice, then hepar and renal organs were taken. Renal and hepar preparate are stained with hematoxilin eosin (HE) dye. Morphology of renal and hepar were carried out under a binocular microscope with 100x magnification.
RESULTS AND DISCUSSION:
Provision of alloxan and fat-rich diet can cause changes in renal morphology (figure 1.B). The glomerular size of rats given alloxan and fat-rich feed appeared more extensive than the normal group. Alloxan is a toxic compound that can cause cells that experience inflammation and glomerular dilation—fat accumulation in the renals caused due to the provision of fat-rich feed. Fat-rich food contains 5% duck egg yolks and 15% lard. The steam tomato extract 10mg/rat can protect the renal so that the size of the glomerulus is almost the same as the normal group (Figure 1.A). Rats given extract showed less fat accumulation in the renal than the negative control group.
Morphology of the normal hepar shown in Figure 2.C. Rat given alloxan and rich-fat diet causes inflammation due to inflammatory cells and fatty acids (Figure 2.B). The steam tomato extract 10mg/rat can protect the hepar, where the appearance of hepar tissue is almost the same as the normal group (Figure 1.A). The rat that administrated the extract seemed to be the amount of fat accumulation in the hepar less than in the negative control group.
Figure 1. Morphology of renal organs. A= tomato extract 10 mg/tail of rat; B = loading alloxan and fat rich diet; C = normal control.
1 = normal cell; 2 = inflammation; 3 = fatty degeneration; 4 = hemorrhage; 5 = glomerulus
Figure 2. Morphology of hepar organs. A= tomato extract 10 mg/tail of rat; B = loading alloxan and fat rich diet; C = normal control.
VS = central vein; 1 = fatty degeneration; 2 = normal hepar cells; 3 = inflammatory cells
Observations were made on all groups, indicating that glomerular epithelial cells and renal tubules change such as fatty degeneration, hemorrhage, and inflammation. In the normal control group (placebo), there was inflammation in the constituent cells of the renal but at a mild level. The hepars and renals are essential organs that metabolize compounds, whether toxic or not.
Tomato extract contains lycopene compounds, beta carotene, and vitamin C7. Tomato extract can protect the renal from damage caused by loading alloxan and fat-rich diet. Steam tomato extract containing lycopene compounds. Lycopene is a terpenoid compound that has the antioxidant ability8. Lycopene is a natural pigment which protects the body by neutralizing the harmful effects of oxidants9. In addition to antioxidant activity, lycopene compounds are also able to cause a decrease in blood lipid levels10. Hypolipidemia activity will also be able to reduce fatty hepar through endogenous pathways so that the accumulation of lipids in the hepar is reduced11. In addition to lycopene in tomato extract also contains beta carotene compounds and vitamin C, which can act as antioxidants12. This ability can protect the hepar and renal against toxic compounds (such as alloxan and fat).
CONCLUSION:
Administration of steam tomato extract for two weeks 10 mg/rat of rat could provide a positive effect in protecting renal and hepar organs due to the loading of alloxan and fat-rich diet.
ACKNOWLEDGEMENTS:
The authors’ acknowledgment should go to the Ministry of Research Technology and Higher Education, the Republic of Indonesia who financially supported this project through contract No. 171.68/UN14.4. A/LT/2018
CONFLICT OF INTEREST:
None.
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Received on 01.10.2019 Modified on 16.12.2019
Accepted on 24.02.2020 © RJPT All right reserved
Research J. Pharm. and Tech. 2020; 13(10):4675-4677.
DOI: 10.5958/0974-360X.2020.00822.7