EXTRACTION ISOLATION CHARACTERIZATION AND PHARMACOLOGICAL SCREENING OF AEGLE MARMELOS FOR ANTIASTHMATIC ACTIVITY
HTML Full TextEXTRACTION ISOLATION CHARACTERIZATION AND PHARMACOLOGICAL SCREENING OF AEGLE MARMELOS FOR ANTIASTHMATIC ACTIVITY
Vaishnavi S. Kurade * and T. Narvekar Vandana
Dr. J. J. Magdum Pharmacy College, Jaysingpur, Kolhapur, Maharashtra, India.
ABSTRACT: Aegle marmelos (L) Correa also known as Bale, belongs to family Rutaceae. The plant is used to treat several diseases like bronchitis, asthma, malarial, astringent, laxatives, digestive and febrifuge. Leaves are used as antipyretic, antimicrobial, antidiabetic, antihistaminic, anti-inflammatory, antioxidant, and hyperlipidaemic activity. The plant contains diterpenoids, triterpenoids, and phenolic compounds. The present investigation was carried out to isolate, purify, and characterize active constituents from the Aegle marmelos (L) Correa plant. Powdered material of the whole Aegle marmelos (L) Correa plant was taken to prepare extract using Soxhlet apparatus. Various phytochemical tests were performed for alkaloids, glycosides, phenolic, flavonoids, etc. TLC was done for the isolation of compounds. GC-MS, thin layer chromatography, and Nuclear magnetic resonance further characterized the isolated compounds. The anti-asthmatic was evaluated by using in-vitro models. The Petroleum ether extract of Aegle marmelos (L) Correa significantly inhibited histamine contraction and confirmed the significant anti-asthmatic activity.
Keywords: Aegle marmelos (L) Correa, Rutaceae, Anti-asthmatic activity
INTRODUCTION: Plants have been used as medicines for 1000 years. These medicines originally took the form of crude drugs such as powders, tinctures, teas, poultices, and other herbal formulations. Using plants as medicines has difficult to isolate energetic compounds, beginning with the isolation of morphine from the opium plant in the early 19th century. Isolation & Characterization of pharmacologically energetic compounds from medicinal plants continues today. Drug discovery from medicinal plants has evolved to various analysis methods and includes frequent fields of inquiry 1.
Phytochemicals remain bioactive compounds initiated in plants that work through dietary fiber and nutrients to defend beside diseases. These phytochemicals are the secondary metabolites current in lesser quantities in difficult plants and they consist of Steroids, terpenoids, tannins, flavonoids, alkaloids and many others 2. Herbal drugs are use of therapeutic herbs to avoid and treat diseases and disorders or to support health and curative. According to the World Health Organization (WHO), the usage of herbal medications worldwide exceeds that of the predictable drugs by two to three times 3.
Bronchial asthma is unique to the main respiratory disorders in clinical practice, produced by a combination of complex and incompletely silent environmental and genetic interactions. It is characterized by chronic airway infection and greater than before hyper-responsiveness leading to chest tightness, wheeze, cough, and dyspnoea. However, India is an enormous country with immense economical, Socio-political, geographical, religious and racial diversity. In a survey of more than 2000 individuals, asthma was 2.0% in women and about 3.65% in men. The prevalence of current asthma was 11.9% in children. Boys had a significantly advanced occurrence of asthma compared to girls (12.8% and 10.7%, respectively) 4.
MATERIAL AND METHOD: The whole plant of Aegle marmelos (L) correa was collected in the month of September (2018) from near of, Peth-vadgaon, Tal-Hatkangale, Dist.-Kolhapur, Maharashtra, India and plant material was identified, confirmed and authenticated (authentication no. 289/2017-18 Dated-07 Nov 2017) by Prof. D. G. Jagtap, Head department of botany, Principal ShriVijaysinhaYadav Arts and Science College, Peth-Vadgaon.
After collection of plant material was thoroughly washed in distilled water and shade dried, crushed in an electrical grinder and then powdered.
Preparation of Plant Extract: The powdered material was subjected for extraction with various solvent in Soxhlet apparatus for 24 hrs based on increasing polarity in order of petroleum ether (60-800c) for defatting, chloroform, methanol and ethanol separately. All the extracts were concentrated and the solvent was evaporated in order to get dry extracts. The percentage yield of various extracts was calculated by the following formula-
% Yield = Weight of extract (g)/ Weight of dry powder (g) x 100
Phytochemical Screening: It was carried out by using standard chemical tests 5.
Isolation and Characterization of Individual Compounds: After chromatogram development, the plates were allowed to dry. Distance traveled by solute and solvent were marked and measured and their Rf value was calculated. Further from the data obtained from each extract's Rf values, the individual spots were isolated from the TLC plates. After drying the plates, each spot was scrapped from the plate using a sharp pointer. Each spot was collected in different test tubes according to their Rf values. They were further analyzed for their identity using analytical methods such as FTIR, NMR and GC-MS.
TABLE 1: SOLVENT SYSTEM FOR DIFFERENT EXTRACTS
Sr. no. | Extract | Solvent systems |
1 | Petroleum ether | Benzene: chloroform (10:10) |
2 | Ethanol | Chloroform: methanol (20:2) |
3 | Methanol | Benzene: chloroform (10:10) |
Evaluation of Anti-asthmatic Activity 6: The anti-asthmatic activity was evaluated using the isolated goat tracheal chain Preparation method, the goat tracheal tissue was obtained immediately after slaughter of animals. Pieces of trachea were collected in freshly prepared ice-cold oxygenated Krebs’s solution, cut into individual rings, and tied together in series to form chain. One end was tied to the aerator and other attached isotonic frontal lever to kymograph paper on Sherrington rotating drum. Tissue was allowed to equilibrate for 45min. under to load of 400mg. A dose response curve of histamine was taken in variant molar concentration. After obtaining a dose curve of histamine on goat trachea aqueous solution of extract was added to reservoir and same dose histamine were repeated.
RESULT AND DISCUSSION:
TABLE 2: PERCENTAGE YIELD AND PHYSICAL APPEARANCE OF EXTRACTS
Sr. no. | Extract | % Yield (w/w) | Physical appearance |
1 | Petroleum ether | 72.28 | Dark greenish |
2 | Ethanol | 78.68 | Dark greenish |
3 | Methanol | 87.2 | Dark greenish |
TABLE 3: PHYTOCHEMICAL TESTS OF AEGLE MARMELOS (L) CORREA
Test | Petroleum ether | Ethanol | Methanol | |
Test for carbohydrates | ||||
Molishtest | + | + | + | |
Fehlingsolution Test | + | - | - | |
Benedict’s test | - | - | + | |
Test for proteins | ||||
Biuret test | + | + | - | |
Millon’s test | - | + | ||
Test for amino acid | ||||
Ninhydrine test | + | + | + | |
Test for steroid | ||||
Salkowaski test | + | + | + | |
Test for glycosides | ||||
KellerKillani test | + | - | - | |
Foam test | + | - | + | |
I. Grignard reaction or sodium picrate test | + | - | - | |
Test for flavonoids | ||||
Lead acetate test | + | + | + | |
Test for alkaloids | ||||
Dragendroff’s test | + | + | + | |
Mayer’stest | - | + | + | |
Hager test | - | - | - | |
Wagner’s Test | - | + | - | |
A. Test for tannins and phenolic compounds | + | - | + |
(-) indicates absence, (+) indicates present.
FIG. 1, 2, 3: TLC PROFILE OF PETROLEUM ETHER EXTRACT (1), ETHANOL EXTRACT (2), METHANOL EXTRACT (3) RESPECTIVELY
TABLE 4: TLC PROFILE OF DIFFERENT EXTRACTS OF AEGLE MARMELOS (L) CORREA
Extract | Spot | Rf value |
Petroleum ether | A | 0.77 |
B | 0.74 | |
C | 0.68 | |
D | 0.51 | |
E | 0.20 | |
Ethanol extract | A | 0.90 |
B | 0.53 | |
C | 0.41 | |
D | 0.31 | |
Methanol extract | A | 0.56 |
B | 0.49 | |
C | 0.40 |
Characterization of Isolated Compounds by Spectral Analysis:
Isolated Compound A:
FTIR Spectra:
FIG. 4: FTIR SPECTRA OF ISOLATED COMPOUND (A) OF AEGLE MARMELOS (L) CORREA
Interpretation of FTIR spectra confirms the presence of C=O Aromatic ketone, O-H, C-H stretching, C=C Stretching.
Mass Spectra:
FIG. 5: MASS SPECTRA OF ISOLATED COMPOUND (A) OF AEGLE MARMELOS (L) CORREA
Interpretation of Mass spectra confirms the presence of Thymol
NMR Spectra:
FIG. 6: H1 NMR SPECTRA OF ISOLATED COMPOUND (A) OF AEGLE MARMELOS (L) CORREA
Interpretation of NMR spectra shows the result close to the Thymol from the above characterization study isolated compound A was identified is Thymol.
FIG. 7: THYMOL
Isolated Compound B:
FTIR Spectra:
FIG. 8: FTIR SPECTRA OF ISOLATED COMPOUND (B) OF AEGLE MARMELOS (L) CORREA
Interpretation of FTIR spectra confirms the presence of O-H, C-H stretching, C=C Stretching
Mass Spectra:
FIG. 9: MASS SPECTRA OF ISOLATED COMPOUND (B) OF AEGLE MARMELOS (L) CORREA
Interpretation of Mass spectra confirms the presence of Phytol.
NMR Spectra:
FIG. 10: H1 NMR SPECTRA OF ISOLATED COMPOUND (B) OF AEGLE MARMELOS (L) CORREA
Interpretation of NMR spectra shows the result close to the Phytol from the above characterization study isolated compound B was identified is Phytol.
FIG. 11: PHYTOL
Pharmacological Screening by In-vitro Evaluation of Anti-asthmatic Activity: Responses of 2.5 μg/ml histamine was found to be Mean ±SD = 15.540±0.45607.
TABLE 5: EFFECTS OF DIFFERENT EXTRACTS OF AEGLE MARMELOS (L) CORREAON HISTAMINE INDUCED CONTRACTION ON ISOLATED GOAT TRACHEAL CHAIN PREPARATION
Sr. no. | Drug | Dose | Height (Mean±SEM) |
1 | Histamine | 2.5 | 15.540±0.45607 |
2 | Petroleum ether extract | 300 | 10.680±0.6300 |
3 | Ethanol extract | 300 | 4.700±0.4062 |
4 | Petroleum ether extract | 400 | 7.960±0.7231 |
5 | Ethanol extract | 400 | 3.600±0.5431 |
n= 5, Values are in Mean± SEM, Data was analysed using one-way ANOVA.
FIG. 12: EFFECTS OF DIFFERENT EXTRACTS OF AEGLE MARMELOS (L) CORREA ON HISTAMINE INDUCED CONTRACTION ON ISOLATED GOAT TRACHEAL CHAIN PREPARATION
DISCUSSION: In the present study Petroleum ether extract (300 μg, 400 μg) of Aegle marmelos (L) correa showed significant dose-dependent antiasthmatic activity in goat tracheal chain model. While Ethanolic extract (300μg, 400μg) showed satisfactory activity.
CONCLUSION: The plant Aegle marmelos (L) correa seems to be a promising candidate with respect to its anti-asthmatic activity and may be recycled as adjuvant to dietary therapy and drug treatment for controlling asthma. We evaluated in-vitro anti-asthmatic activity using the goat tracheal chain model we concluded that the Aegle marmelos (L) Correa is a potential member for the anti-asthmatic activity.
ACKNOWLEDGEMENT: The authors gratefully acknowledge Ashokrao Mane College of Pharmacy, Pethvadgaon, Kolhapur, Maharashtra, India. for providing the facility to carry out the study.
CONFLICTS OF INTEREST: The authors declare that they have no conflict of interest.
REFERENCES:
- Atul NP, Nilesh VD, Akkatai RA, Kalekar and Kamlakar S: A review on Aegle mmarmelos: A potential medicinal Tree, International Reaserch Journal of Pharmacy 2012; 3(8): 86-91.
- Neeraj, Vinita Bisht and Vishal Johar: Bale (Aegle marmelos) Extraordinary species of India: A review, International Journal of Current Microbiology and Applied Sciences 2017; 6(3): 1870-1887.
- Sandeep Dhankhar, Ruhil S, Balhar M, Seema Phankhar and Chillar AK: Aegle marmelos (Linn.) Correa: A Potential Source of Phytomedicine, Journal of Medicinal Plants Reaserch 2011; 5(9): 1497-1507.
- Marcy JB and Douglas K: Drug Discovery from Medicinal Plants, Mini review. Life Science 2005; 78: 431-441.
- Vasanthi, Manimekalai G, Vasanthi KE, Nirmala A and Jagajothi A: Phytochemical screening and antioxidant activity of extracts of the leaf and bark of Albizza Lebbeck [Benth]. Academic Journal of Medicinal Plants 026-031
- Anirudha VL, Kalpana and Narsing S: Epidemiological study on Bronchial Asthma, Indian J. Allergy Asthma Immunol 2011; 25(2): 85-89.
- Khandelwal KR: Practicalphrmacognosy. Pune: Niraliprakashan 2006; 149.
- Tamhane AS and Mute VM: Takawale H, Awari DM: Preclinical Evaluation and Antiasthmatic Activity of Cassia tora Leaves. IJRAP 2012; 3(2): 3-4.
- Patil SD and Ninave PB: In-vivo and in-vitro screening models of asthma: an overview, International Journal of Reaserch and Development in Pharmacy and Life Science 2016; 5(4): 2209-2218.
- Patkar AN, Desai NV, Range AA, Kalekar and Kamlakar S: A Review on Aegle marmelos: A potential medicinal Tree. Intern Reaserch J of Pharmacy 2012; 3(8): 86-91
- Neeraj, Vinita B and Vishal J: Bale (Aegle marmelos) Extraordinary species of India: Areview. International Journal of Current Microbiology and Applied Sciences 2017; 6(3): 1870-1887
- Sandeep D, Ruhil S, Balhar M, Phankhar S and Chillar AK: Aegle marmelos (Linn.) Correa: A Potential Source of Phytomedicine, Journal of Medicinal Plants Reaserch 2011; 5(9): 1497-1507.
- Tiwari P, Bimlesh K, Kaur M, Kaur G and Kaur H: Phytochemical screening and extraction. A Review, International Pharmaceutica Sciencia 2011; 1(1): 98-106
- Evans WC and Trease GE: A text book of pharmacognocy, Bailliare Tindall and Cassel Ed 14th 2008; 13.
- Kasture AV, Mahadik KR, Wadodkar SG and More HN, Pharmaceutical analysis; 2; 4.6-4.7
- Ansari A, Kashyap P, Sawarkar H, Deshmukh V, Upadhyay A and Pal S: J Herb Drug Res 2011; 19-27.
How to cite this article:
Kurade VS and Vandana TN: “Extraction isolation characterization and pharmacological screening of Aegle marmelos for antiasthmatic activity”. Int J Pharm Sci & Res 2023; 14(6): 3070-75. doi: 10.13040/IJPSR.0975-8232.14(6).3070-75.
All © 2023 are reserved by International Journal of Pharmaceutical Sciences and Research. This Journal licensed under a Creative Commons Attribution-NonCommercial-ShareAlike 3.0 Unported License.
Article Information
46
3070-3075
768 KB
232
English
IJPSR
Vaishnavi S. Kurade * and T. Narvekar Vandana
Dr. J. J. Magdum Pharmacy College, Jaysingpur, Kolhapur, Maharashtra, India.
vaishnavikurade32@gmail.com
16 October 2022
05 December 2022
30 April 2023
10.13040/IJPSR.0975-8232.14(6).3070-75
01 June 2023