preliminary phytochemical screening, antifungal and
TRANSCRIPT
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Kaur et al. World Journal of Pharmacy and Pharmaceutical Sciences
PRELIMINARY PHYTOCHEMICAL SCREENING, ANTIFUNGAL AND
ANTHELMINTIC ACTIVITIES OF BARK AND LEAVES EXTRACTS
OF FICUS BENGALENSIS LINN
*Arvinder Kaur, Jasreen Kaur, Maninderjeet Kaur, Gurdeep Kaur,
Rajinder Kaur, Manpreet Kaur, Amit Kapoor
G.H.G Khalsa College of Pharmacy, Gurusar Sudhar, Ludhiana, India.
ABSTRACT
Nystatin, was used as a standard drug for antifungal activity. The bark
and leaves of F. bengalensis were subjected to successive Soxhlet
extraction using different solvents in an increasing order of their
polarity viz starting from petroleum ether (60-80oC), chloroform,
methanol and then distilled water. Weighed quantity of the various
extracts, were subjected to preliminary phytochemical screening.
Antifungal activity of crude extract on Candida albicans and
Aspergillus niger fungal strains were analyzed by Agar diffusion cup
plate method. All the extracts viz Petroleum ether (PE), Chloroform
(CE), Methanol (ME) and Water (WE) were used in range of 25 mg/ml to 100 mg/ml for
screening antifungal activity. Piperazine is used as standard drug for Anthelmintic activity.
Both aqueous and methanol extracts of F. bengalensis in range of 50 mg/ml to 100 mg/ml
were screened for Anthelmintic activity. Antifungal activity is not observed by pet ether,
chloroform, methanol and water extracts in concentration range from 25 mg/ml to 100
mg/ml. The methanol extract showed potent anthelmintic activity at dose of 25 mg/ml than
water extract. F. bengalensis possesses good anthelmintic activity. The antifungal activity is
may be due to the presence of flavonoids and phenolic compoundspresent in whole plant.
KEYWORDS: Anthelmintic activity, Antifungal activity, Piperazine, Candida albicans,
Aspergillus niger, Extracts, F. bengalensis.
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Article Received on
11 June 2015,
Revised on 02 July 2015,
Accepted on 23 July 2015
*Correspondence for
Author
Arvinder Kaur
G.H.G Khalsa College of
Pharmacy, Gurusar Sudhar,
Ludhiana, India.
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Kaur et al. World Journal of Pharmacy and Pharmaceutical Sciences
INTRODUCTION
Traditional medicinal plants have a long history of therapeutic uses as described in Ayurveda,
Sidha and Unani. Importance of such plants is more now a days.
F. bengalensis has been traditionally used in the treatment of mental disorders, hypertension,
insomnia, diabetes, common cold, fever, epilepsy and as anti-aging agent. Further, F.
bengalensis has been the centre of interest to pharmacologists as it exhibits a variety of
pharmacological activities viz. anti-inflammatory, anticonvulsant, analgesic, antidepressant,
antiasthmatic, etc. Keeping in mind the traditional/ alternative and complementary medicinal
uses and diverse activity potential, F. bengalensis seems to hold a great potential for in depth
investigation for various biological activities, especially antifungal activity.[1,2]
The rationale
behind the study gets further strengthen by the fact that it is used in Ayurveda for treatment
of diarrhoea, piles, teeth and skin disorders.[3]
Variety of phytoconstituents are present in
different parts of F. bengalensis such as the bark contains leucopelargonidin-3-0-α-L
rhamnoside and leuco cynidin 3-0-α-D galactosyl cellobioside, glucoside, beta glucoside,
pentatriacontan-5-one, beta sitosterolalpha- D-glucose. The whole plant contain, crude
protein, crude fibres, CaO, phosphorous, rutin, friedelin, taraxosterol, lupeol, β-amyrin along
with psoralen, bergapten and β-sisterol, quercetin-3-galactoside. It also contains
leucodelphinidin derivative, bengalenoside, aglucoside, leucopelargonin and leucocynidin
derivatives. F. bengalensis also contain taraxasterol.[2]
So this plant was selected for anti-
fungal and anthelmintic activity.
Therefore, in lieu of above deliberations it was thought worthwhile to investigate antifungal
and anthelmintic activities by implementing the following plan of work.
1. Subjecting F. bengalensis to detailed preliminary phytochemical screening
2. Screening F. bengalensis for antifungal and anthelmintic activities
MATERIAL AND METHODS
Plant material
The bark and leaves of F. bengalensis were collected from HARI OM HERBS of Santinagar
Chhutmalpur in july 2012. The plant was authenticated by Dr. K. MADHAVA CHETTY, Sri
Venkateswara University, TIRUPATI and the plant specimen is kept at the Herbarium of
G.H.G Khalsa College of Pharmacy, Gurusar Sudhar, Ludhiana
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Kaur et al. World Journal of Pharmacy and Pharmaceutical Sciences
Standard drug
Nystatin, was used as a standard drug for antifungal activity. The drugs obtained were free
gift sample from Jackson Pharmaceuticals Ltd., Amritsar, India.
Solvents
Petroleum ether (60-80°C), Chloroform and Methanol were employed for extraction of plant
material using soxhlet apparatus and finally the drug was boiled with distilled water.
Dimethyl sulphoxide, was used as solvent for dissolving different extracts. It is colourless
liquid with boiling point 189°C. It is miscible with water, chloroform, acetone, alcohol and
petroleum ether.
Chemicals
Sodium hydroxide, Chloral hydrate, Copper sulphate, Ferric chloride, Sulphuric acid, Iodine,
Lead acetate, Magnesium, Pottasium iodide, Picric acid, Mercuric chloride, Nitric acid,
Gelatin, Sodium chloride were used for phytochemical screening of the plant extracts.
Preparation of extracts
The bark and leaves of F. bengalensis were dried in shade and coarsely powdered. Five
hundred gram powder material was subjected to successive Soxhlet extraction using different
solvents in an increasing order of their polarity viz starting from petroleum ether (60-80oC),
chloroform, methanol and then distilled water for not less than 48 hours. After each
extraction the powdered material was dried in air at room temperature. Finally, marc was
digested with distilled water for 24 hours or more to obtain aqueous extract. Each extract was
concentrated in vaccum using Rotatory evaporator. Extracts were weighed subsequently and
the percentage yields were calculated of each extract obtained individually in terms of the air
dried weigh of plant material.
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Powdered Drug
Soxhlet extraction Pet ether
Marc Petrolium ether extract
Soxhlet extraction Chloroform
Marc Chloroform extract
Soxhlet extraction Methanol
Marc Methanol extract
Digestion Water
Marc Aqueous extract
Phytochemical Screening
Weighed quantity of the various extracts, were subjected to preliminary phytochemical
screening using standard methods.[4]
All the extracts of F. bengalensis were screened for
different classes of phytoconstituents using specific standard reagents.[5]
Antifungal activity studies
Examination of antifungal activity of bark and leaves extracts of F. bengalensis were
accessed by studying inhibition effect of extracts on two fungal strains. Antifungal activity of
crude extract on fungal strains is analyzed by Agar diffusion cup plate method.
Microorganisms (fungal strains)
The fungal strains were collected from Sanjay Biologicals, Amritsar, Punjab.
Fungus : Candida albicans , Aspergillus niger
Maintenance of culture
Nutrient agar slant were made for maintenance of cultures and preserved at 4ºC in an
incubator. For further use of cultures, sub-culturing is done at regular intervals.
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Media used
1. Potato dextrose agar (PDA) media (HI MEDIA Laboratories, Mumbai)
Ingredients Gm/L
Potato infusion 200
Dextrose 20
Agar 15
Preparation of inoculum
For preparing inoculums the cell suspension method is used. In this method a loopful of
fungal strain was taken and suspended in a nutrient broth which is further incubated in
incubator shake for 6 hrs at 30°C at 300 rpm. This cell suspension was used as inoculum.
Preparation of test samples from dried residues
Variable concentrations of extracts were prepared by dissolving dried residues in DMSO for
testing inhibitory efficacy against selected fungal strains. Stock solutions of extracts were
diluted in DMSO to produce concentrations ranging from 100 mg/ml to 25 mg/ml.
Antifungal screening
Diffusion of extract through the cavity or cylinder in petriplate is preceded and inhibition of
growth of microorganisms is called zone of inhibition which is measured in millimetre. From
the inoculums, prepared as above 0.1 ml of each of C. albicans and A. niger suspension was
spread uniformly on PDA medium petriplates. Cultured plates were incubated at 28°C for
seven days. A well 8 mm is prepared for both fugal strains by using a sterilized steel cork
borer which cuts the cultured plates in appropriate size and filled with aliquot volume of
extracts samples using sterilised micropipette.[6]
Then cultured plates were then incubated in BOD incubator at 28°C up to 48 hours for C.
albicans and for A. niger. Diameter of any resultant zone of inhibition including well size
was measured. For each combination of extract preparation and organism, the plates were
kept in triplicate (n=3). DMSO was used as control and Nystatin was used as standard
drug.[7]
Drugs (Test samples)
All the extracts viz Petroleum ether (PE), Chloroform (CE), Methanol (ME) and Water (WE)
were used in range of 25 mg/ml to 100 mg/ml for screening antifungal activity.
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Anthelmintic activity
Experimental animals
Indian adult earthworms were collected from Sanjay Biologicals Museum, Amritsar, Punjab.
The earthworms were washed with normal saline to remove all faecal matter. The
earthworms of 3-5 cm in length and 0.1-0.2 cm in width were used for all experimental
protocol.
Standard Drug
Piperazine (Glaxo Smithkline Pvt. Ltd.) is used as standard drug.
Preparation of test samples from dried residues
DMSO (Merck, 2001) is used to prepare various concentrations of extracts for experimental
work. DMSO is used as control.
Anthelmintic activity
All the earthworms were divided into four groups each group contains six earthworms. The
standard drug solution and extract doses were freshly prepared before starting the experiment.
All earthworms were released into 10 ml of each respective solution’s (8). One group is in
5% DMSO, one group in different conc. of methanol solutions as 25 mg/ml, 50 mg/ml and
100 mg/ml of F. bengalensis, one group in different conc. of aqueous solutions of F.
bengalensis as 25 mg/ml, 50 mg/ml and 100 mg/ml and one group is in 10 ml of piperazine
solution. Time of paralysis and death is recorded respectively.
Drugs (Test samples)
Both aqueous and methanol extracts of F. bengalensis in range of 50 mg/ml to 100 mg/ml
were screened for Anthelmintic activity.
RESULTS
Preliminary phytochemical screening
Table 1: Preliminary phytochemical screening observed for bark and leaves extracts of
F. bengalensis
S.
no Phytochemical constituents
Pet ether
extract
Methanol
extract
Chloroform
extract
Water
extract
1.
Alkaloids
1. Mayer’s reagent
2. Hager’s reagent
3. Wagner’s reagent
4. Dragendorff’s reagent
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
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Kaur et al. World Journal of Pharmacy and Pharmaceutical Sciences
2.
Phenolic compounds and Tanins
1. Fecl3
2. Lead acetate test
3. Bromine water test
-
-
-
+
+
-
-
+
+
-
+
-
3. Saponin
1. Frothing test
-
+
+
+
4.
Carbohydrates
1. Molisch test
2. Fehling’s solution A
2. Fehling’s solution B
-
-
-
+
+
+
+
-
-
+
+
+
5.
Protein and Amino acids
1. Millon’s test
2. Biuret test
3. Ninhydrin test
-
-
-
-
-
-
-
-
-
-
-
-
6.
Glycosides test
1. Borntrager’s test
2. Legal’s test
-
-
-
-
-
-
-
-
7.
Flavonoids test
1. Alkaline reagent test
2. Shinoda test
-
-
+
+
+
+
-
+
8.
Phytosterols test
1. Liebermann’s test
2. Libermann Burchard test
-
-
-
-
+
+
-
-
+ = present, - = absent
Antifungal activity
Fig 1: A Fig 1: B
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Fig 1: C Fig 1: D
Fig 23: Antifungal activity of extracts on A. niger
A – Chloroform extract
B – Methanol extract
C - Water extract
D – Standard drug and control DMSO (5%)
Fig 2: A Fig 2: B
Fig 2: C Fig 2: D
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Fig 24: Antifungal activity of extracts on C. albicans
A - Chloroform extract
B - Methanol extract
C – Water extract
D – Standard drug and control DMSO (5%)
Table 2: Antifungal activity of extracts observed for 48 hrs at an interval of 12 hrs
Activity after 12 hrs
Aspergillus niger Candida albicans
DMSO 5% 0 0
Standard (50 µg/ml) 17.2 16
Standard (250 µg/ml) 18.5 18.2
Standard (500 µg/ml) 20 20
Methanol (25 mg/ml) 0 0
Methanol (50 mg/ml) 0 0
Methanol (75 mg/ml) 0 0
Methanol (100 mg/ml) 0 0
Chloroform (25 mg/ml) 0 0
Chloroform (50 mg/ml) 0 0
Chloroform (75 mg/ml) 0 0
Chloroform (100 mg/ml) 0 0
Water (25 mg/ml) 0 0
Water (50 mg/ml) 0 0
Water (75 mg/ml) 0 0
Water (100 mg/ml) 0 0
Activity after 24 hrs
Aspergillus niger Candida albicans
DMSO 5% 0 0
Standard (50 µg/ml) 19.2 20.5
Standard (250 µg/ml) 20.5 24.2
Standard (500 µg/ml) 20.7 25
Methanol (25 mg/ml) 0 0
Methanol (50 mg/ml) 0 0
Methanol (75 mg/ml) 0 0
Methanol (100 mg/ml) 0 0
Chloroform (25 mg/ml) 0 0
Chloroform (50 mg/ml) 0 0
Chloroform (75 mg/ml) 0 0
Chloroform (100 mg/ml) 0 0
Water (25 mg/ml) 0 0
Water (50 mg/ml) 0 0
Water (75 mg/ml) 0 0
Water (100 mg/ml) 0 0
Activity after 36 hrs
Aspergillus niger Candida albicans
DMSO 5% 0 0
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Standard (50 µg/ml) 19.5 21
Standard (250 µg/ml) 20.5 24.5
Standard (500 µg/ml) 20.7 25
Methanol (25 mg/ml) 0 0
Methanol (50 mg/ml) 0 0
Methanol (75 mg/ml) 0 0
Methanol (100 mg/ml) 0 0
Chloroform (25 mg/ml) 0 0
Chloroform (50 mg/ml) 0 0
Chloroform (75 mg/ml) 0 0
Chloroform (100 mg/ml) 0 0
Water (25 mg/ml) 0 0
Water (50 mg/ml) 0 0
Water (75 mg/ml) 0 0
Water (100 mg/ml) 0 0
Activity after 48 hrs
Aspergillus niger Candida albicans
DMSO 5% 0 0
Standard (50 µg/ml) 19.5 21
Standard (250 µg/ml) 20.5 24.5
Standard (500 µg/ml) 20.7 25
Methanol (25 mg/ml) 0 0
Methanol (50 mg/ml) 0 0
Methanol (75 mg/ml) 0 0
Methanol (100 mg/ml) 0 0
Chloroform (25 mg/ml) 0 0
Chloroform (50 mg/ml) 0 0
Chloroform (75 mg/ml) 0 0
Chloroform (100 mg/ml) 0 0
Water (25 mg/ml) 0 0
Water (50 mg/ml) 0 0
Water (75 mg/ml) 0 0
Water (100 mg/ml) 0 0
Fig 3: Antifungal activity of extracts after 12 hrs.
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Fig 4: Antifungal activity of extracts after 24 hrs.
Fig 5: Antifungal activity of extracts after 36 hrs.
Fig 6: Antifungal activity of extracts after 48 hrs.
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Anthelmintic activity
Table 3: Anthelmintic activity represent time of paralysis and time of death.
Time of paralysis (min) Time of death (min)
Control (DMSO 5%) 0 0
Standard (10 mg/ml) 25±2.8 64±6.2
Methanol (25 mg/ml) 52±5.4 65.1±5.3
Methanol (50 mg/ml) 21.3±4.8 33.1±4.5
Methanol (100 mg/ml) 11.5±3.2 17.3±4.1
water (25 mg/ml) 94.3±8.9 187.5±17
water (50 mg/ml) 50.6±6.1 103.3±10.4
water (100 mg/ml) 23±2.7 52.8±5.5
Fig 7: Anthelmintic activity of extracts.
DISSCUSION AND CONCLUSION
The present study was designed to study the antifungal and anthelmintic activity of bark and
leaves extracts of F. bengalensis.
Antifungal activity is not observed by pet ether, chloroform, methanol and water extracts in
concentration range from 25 mg/ml to 100 mg/ml. The methanol extract showed potent
anthelmintic activity at dose of 25 mg/ml than water extract. As the concentration of
methanol extract was increased from 25 mg/ml to 100 mg/ml the paralyses and death time of
earthworm decreased as compared to water extract. It was observe that methanol extract at a
dose of 100 mg/ml showed more anthelmintic activity than standard drug piperazine at a
concentration of 10 mg/ml.
So, it is concluded that F. bengalensis possesses good anthelmintic activity. The antifungal
activity is may be due to the presence of flavonoids and phenolic compounds.
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