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| ORIGINAL ARTICLE |
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| Year : 2010 | Volume
: 2
| Issue : 1 | Page : 26-30 |
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Protective effect of stem bark of Ceiba pentandra linn. against paracetamol-induced hepatotoxicity in rats
Nirmal K Bairwa, Neeraj K Sethiya, SH Mishra
Herbal Drug Technology Laboratory, Pharmacy Department, Faculty of Technology and Engineering, The Maharaja Sayajirao University of Baroda, Vadodara, Gujarat - 390 001, India
| Date of Submission | 18-Nov-2009 |
| Date of Decision | 09-Dec-2009 |
| Date of Web Publication | 13-Mar-2010 |
Correspondence Address:
Nirmal K Bairwa
Herbal Drug Technology Laboratory, G. H. Patel Pharmacy Building, Donor's Plaza, Fatehgunj, Vadodara, Gujarat - 390 002
India
 Source of Support: None, Conflict of Interest: None  | Check |
DOI: 10.4103/0974-8490.60584
 Abstract | | |
The present study reports protective activity of ethyl acetate fraction of methanol extract of stem bark of Ceiba pentandra against paracetamol-induced liver damage in rats. The ethyl acetate fraction (400 mg/kg) was administered orally to the rats with hepatotoxicity induced by paracetamol (3 gm/kg). Silymarin (100 mg/kg) was used as positive control. High performance thin layer chromatography (HPTLC) fingerprinting of ethyl acetate fraction revealed presence of its major chemical constituents. A significant (P < 0.05) reduction in serum enzymes GOT (ALT), aspartate aminotransferase (AST), GPT alkaline phosphatase (ALP), total bilirubin content and histopathological screening in the rats treated gave indication that ethyl acetate fraction of methanolic extract of Ceiba pentandra possesses hepatoprotective potential against paracetamol-induced hepatotoxicity in rats. Keywords: Ceiba pentandra , hepatoprotective, hepatotoxicity, paracetamol
How to cite this article:
Bairwa NK, Sethiya NK, Mishra S H. Protective effect of stem bark of Ceiba pentandra linn. against paracetamol-induced hepatotoxicity in rats. Phcog Res 2010;2:26-30 |
How to cite this URL:
Bairwa NK, Sethiya NK, Mishra S H. Protective effect of stem bark of Ceiba pentandra linn. against paracetamol-induced hepatotoxicity in rats. Phcog Res [serial online] 2010 [cited 2020 Oct 27];2:26-30. Available from: http://www.phcogres.com/text.asp?2010/2/1/26/60584 |
| Introduction | |  |
Liver regulates many important metabolic functions, and any injury causes distortion of these metabolic functions. As per an estimate, about 20,000 deaths occur every year due to liver disorders. Hepatocellular carcinoma is 1 of the 10 most common tumors in the world, with over 250,000 new cases registered each year. [1] It has been reported that 160 phytoconstituents from 101 plants possess hepatoprotective activity. [2] Liver-protective herbal drugs contain a variety of chemical constituents like phenols, coumarins, lignans, essential oil, monoterpenes, carotinoids, glycosides, flavanoids, organic acids, lipids, alkaloids and xanthones derivatives. Extracts of about 25 different plants have been reported to cure liver disorders. [3] In spite of tremendous efforts made in the field of modern medicine, there are hardly any drugs yet designated that stimulate liver function, offer protection to the liver from damage or help regeneration of hepatic cell. [4] Many Indian ethno botanic traditions propose a rich repertory of medicinal plants used by the population for treatment of liver diseases. However, there were not enough scientific investigations on the hepatoprotective activities conferred to these plants. [5] In India, about 40 polyherbal commercial formulations are available and prescribed by physicians to treat hepatic disorders, but search for simple and precise herbal drug still poses an intriguing problem. Some of these plant drugs have also been reported to possess strong antioxidant activity. [6],[7],[8]
Ceiba pentandra (Bombacaceae) is an indigenous medicine, traditionally known by the name of Sweta Salmali in Ayurveda. The bark is acrid, bitter, thermogenic, diuretic, emetic, purgative and tonic; and useful in hepatopathy and vitiated condition of vata and kapha. The roots are diuretic, aphrodisiac, antipyretic. The leaves are used as an emollient; and the decoction of the flowers, as a laxative. The tree yields a dark, almost opaque, gum; it is astringent, tonic and laxative. [9],[10] Alcohol extract of this plant has shown antidiabetic, anti-inflammatory, antibacterial activity. Isoflavonoid, sesquiterpene, naphthoquinone and water-soluble acidic polysaccharides were isolated from Ceiba pentandra. [11],[12],[13],[14],[15],[16],[17] The present study was undertaken to establish the traditional use of Ceiba pentandra as hepatoprotective against paracetamol-induced hepatotoxicity in rats.
| Materials and Methods | | |
Plant material
The stem bark of Ceiba pentandra was collected in the month of September 2008 from the herbal garden of The M. S. University of Baroda, Gujarat, India, and identified at Botany Department, The M. S. University of Baroda. A voucher specimen (PG/NB/HDT-3-2009) was retained in our laboratory for further reference.
Drugs and chemicals
Silymarin was purchased from Micro Labs, Hosur, Tamil Nadu, India. The solvents and other chemicals were procured from SD Fine Chemicals, Mumbai, India.
Animals
Male Wistar rats weighing between 150 and 200 g were used for this study. The animals were procured from Zydus Laboratory, Ahmedabad, India. The animals were kept on a 12-hour light/dark cycle, at a room temperature of 22°C, with free access to food (Kisan Feed India Ltd., Mumbai, India) and water. The animals were acclimatized for a minimum period of 7 days. Experiments were conducted in the period between 0900 and 1400. The animals were used according to the guidelines of the Committee for the Purpose of Control and Supervision of Experiments on Animals (CPCSEA), Ministry of Social Justice and Empowerment, Government of India, New Delhi. The experimental protocol was approved by the Institutional Animal Ethical Committee.
Preparation of extract
Defatted dried powdered stem bark was extracted with methanol in soxhlet apparatus (for 6 hours at 60°C), and volume was reduced to get dried powder with rotary vacuum evaporator. Total methanolic extract (10 gm) was dissolved in distilled water (100. ml) and partitioned with ethyl acetate (100 mL). Ethyl acetate was evaporated under vacuum to get the dried ethyl acetate fraction (5.33%). Silymarin was used as positive control at an oral dose of 100 mg/kg. [18] All the test substances were suspended in vehicle, i.e., 5% acacia mucilage. The extracts were tested for activity at doses of 400 mg/kg p.o.
Chemical analysis
Preliminary qualitative analysis of the ethyl acetate fraction showed the presence of tannin, C-glycoside, phenolic compounds, flavonoid, reducing sugar and triterpenes.
Chromatographic studies of extracts
HPTLC studies
After optimization of mobile phase, a solvent system consisting of chloroform:ethyl acetate:methanol:formic acid (9:1:2:0.1) was selected to give the best resolution of seven spots. The detecting reagent was anisaldehyde in sulfuric acid followed by heating at 1108C for 5 minutes.
Pre-coated and pre-activated TLC plates (E. Merck No. 5548) of silica gel 60 F 254 with the support of aluminum sheets having thickness of 0.1 mm were used.
Sample preparation
Two grams of ethyl acetate fraction of CP was weighed accurately and dissolved in 20 mL of methanol. Solution was then refluxed for 30 min on water bath at 60-70°C. The extract was cooled, filtered and finally the volume was made up to 20 mL with methanol.
Sample application
The sample was applied on TLC plate in the form of band using an automatic sample application device (LINOMAT V, CAMAG) with band width of 9 mm. The quantity of sample applied was 10 µL.
Development
The plate was developed by placing in pre-saturated chamber up to a height of 8 cm. It was developed in the optimized mobile phase, chloroform:ethyl acetate: methanol:formic acid (9:1:2:0.1). The plate was dried using an air dryer. Thereafter, it was derivatized with FeCl 3 and scanned at 540 nm. The HPTLC densitogram is shown in [Figure 1].
Toxicity studies
Acute toxicity study was performed for ethyl acetate fraction of methanolic extract according to the acute toxic classic method as per OECD guidelines. [19] Female albino rats were used for acute toxicity study. The animals were kept fasting overnight providing only water, after which the fractions were administered orally at a dose of 300 mg/kg and the animals were observed for 14 days. If mortality was observed in 2 out of 3 animals, then the dose administered was assigned as toxic dose. If the mortality was observed in 1 animal, then the same dose was repeated again to confirm the toxic dose. If mortality was not observed, the procedure was repeated for further higher dose, i.e., up to 2000 mg/kg.
Paracetamol-induced hepatotoxicity
Rats were divided into four groups of six each: Control, paracetamol-treated, silymarin-treated and test groups. The rats of control group received three doses of 5% acacia mucilage (1 ml/kg, p.o.) at 0 h, 12 h and 24 h. The rats of paracetamol group received three doses of vehicle at 12-hour intervals and a single dose of paracetamol (3 g/kg.) diluted in 0.5% carboxy methyl cellulose (CMC) solution 30 minutes after the administration of first dose of vehicle. The animals in silymarin group received three doses of silymarin (100 mg/kg) at 0 h, 12 h and 24 h; paracetamol (3 g/ kg) was administered 30 minutes after the first dose of silymarin. The test groups were given the first dose of fraction in 0.5% carboxy methyl cellulose (CMC) solution at 0 h, which was followed by a dose of paracetamol (3 g/kg.) after 30 minutes; while at 12 h and 24 h, the second and third dose of respective fraction (400 mg/ kg) was given. [20] After 36 hours of administration of paracetamol, blood was collected and serum was separated and used for determination of biochemical parameters.
Assessment of liver function
Blood was collected from all the groups by puncturing the retro-orbital plexus and was allowed to clot at room temperature, and serum was separated by centrifuging at 2500 rpm for 10 minutes. The serum was used for estimation of biochemical parameters to determine the functional state of the liver. Serum glutamic oxaloacetic transaminase (SGOT) and serum glutamic pyruvic transaminase (SGPT) were estimated by a UV kinetic method based on the reference method of International Federation of Clinical Chemistry. [21] Alkaline phosphatase (ALKP) was estimated by the method described by Mac Comb and Bowers. [22] Total bilirubin (TBL) was estimated by Jendrassik and Grof method. [23] Total cholesterol (CHL) was determined by CHOD-PAP method of Richmond. [24] Total protein (TPTN) was estimated by Biuret method, [25] while albumin (ALB) was estimated by BCG. [26] All the estimations were carried out using standard kits on auto-analyzer of Merck make (300 TX, E. Merck-Micro Labs, Mumbai).
Histopathological studies
Livers of animals from the control and treated groups were used for this purpose. The animals were sacrificed and the abdomen was cut open to remove the liver. The liver was fixed in Bouin's solution (mixture of 75 mL of saturated picric acid, 25 mL of 40% formaldehyde and 5 mL of glacial acetic acid) for 12 hours and then embedded in paraffin using conventional methods. [27] Thereafter, it was cut into 5-µm thick sections and stained using hematoxylin-eosin dye and finally mounted in di-phenyl xylene. The sections were then observed under microscope for histopathological changes in liver architecture, and their photomicrographs were taken.
Statistical analysis
The mean values ± SEM were calculated for each parameter. For determining the significant inter-group differences, each parameter was analyzed separately, and one-way analysis of variance [28] was carried out. Individual comparisons of the group mean values were done using Dunnet's test. [29] P value less than 0.05 was considered to be a significant difference.
| Results | | |
Acute toxicity studies
The ethyl acetate fraction of methanolic extract did not cause any mortality up to 2000 mg/kg and was considered as safe.
Paracetamol-induced hepatotoxicity
The results with regard to paracetamol-induced hepatotoxicity are represented in [Table 1]. Paracetamol intoxication in normal rats elevated the levels of SGOT, SGPT, ALKP and TBL; whereas significant decrease in the levels of TPTN was observed, indicating acute hepatocellular damage and biliary obstruction. The rats that had received 400 mg/kg of EAFME (ethyl acetate fraction of methanolic extract) showed a significant decrease in all the elevated SGOT, SGPT, ALKP and TBL levels and significant increase in the reduced TPTN levels as compared to vehicle-treated group. Histopathological examination of liver sections of control group showed normal cellular architecture with distinct hepatic cells, sinusoidal spaces and central vein [Figure 2]a. Disarrangement of normal hepatic cells with necrosis and vacuolization were observed in paracetamol-intoxicated liver [Figure 2]b. Rat treated with 400 mg/kg ethyl acetate fraction and Silymarin followed by paracetamol intoxication [Figure 2]c and d, significantly reduced the increase in the Liver weight and liver volume, seen after CCl4 intoxication.
| Discussion | | |
The paradigms used in the present study have been subjected to thorough critical appraisal and validated as animal models of hepatoprotective activity of CP in rats against paracetamol as hepatotoxin to prove its claims in folklore practice against liver disorders. Paracetamol hepatotoxicity is caused by the reaction metabolite N-acetyl-p-benzo quinoneimine (NAPQI), which causes oxidative stress and glutathione depletion. It is a well-known antipyretic and analgesic agent that produces hepatic necrosis at higher doses. [30] Paracetamol toxicity is due to the formation of toxic metabolites when a part of it is metabolized by cytochrome P-450. Introduction of cytochrome [31] or depletion of hepatic glutathione is a prerequisite for paracetamol-induced hepatotoxicity. [32],[33] Normally, AST and ALP are present in high concentrations in liver. Due to hepatocyte necrosis or abnormal membrane permeability, these enzymes are released from the cells and their levels in the blood increase. ALT is a sensitive indicator of acute liver damage, and elevation of this enzyme in non-hepatic diseases is unusual. ALT is more selectively a liver parenchymal enzyme than AST. [34] Assessment of liver function can be made by estimating the activities of serum ALT, AST, ALP and bilirubin, which are enzymes originally present in higher concentrations in cytoplasm. When there is hepatopathy, these enzymes leak into the bloodstream in conformity with the extent of liver damage. [35] The elevated levels of all these marker enzymes observed in group II, paracetamol-treated rats, in this present study corresponded to the extensive liver damage induced by toxin. The reduced concentrations of ALT, AST and ALP as a result of plant extract administration observed during the present study might probably be due in part to the presence of flavanoids. Bilirubin is one of the most useful clinical clues to the severity of necrosis, and its accumulation is a measure of binding, conjugation and excretory capacity of hepatocyte. Decrease in serum bilirubin after treatment with the extract in liver damage induced by paracetamol indicated the effectiveness of the extract in normalized functional status of the liver. Herbal drugs contain a variety of chemical constituents like phenols, coumarins, lignans, essential oil, monoterpenes, carotinoids, glycosides, flavanoids, organic acids, lipids, alkaloids and xanthones, which seem to be important for protection of liver. [36] In the present study, the ethyl acetate fraction of stem bark of Ceiba pentandra was found to contain tannin, C-glycoside, phenolic compounds, flavonoid, reducing sugar and triterpenes, thus confirming the ability of ethyl acetate fraction of stem bark of Ceiba pentandra to maintain normal functional status of the liver, which makes an addition in the list of safer herbal remedies for liver and its related disorders.
| Acknowledgment | | |
The authors are grateful to Zydus Healthcare Pvt. Ltd., Ahmedabad, India, for generously providing the animals for the study. One of the authors, Nirmal Kumar Bairwa, is thankful to AICTE, New Delhi, for providing QIP fellowship.
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[Figure 1], [Figure 2]
[Table 1]
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