1Department of Pharmaceutical Science, Siddhivinayak College of Pharmacy, Warora, 442914, Chandrapur, Maharashtra, India.
2Department of Pharmaceutical Science, Sai College of Pharmacy, Mangli -Tumsar,441912, Bhandara, Maharashtra, India.
3Department of Pharmaceutical Science, Prabhat Institute of Pharmacy, Rui- Bramhapuri 441206 Chandrapur, Maharashtra, India
Cassia alata, commonly referred to as "Ketepeng Cina" in Indonesia and "Gelenggang" in Malaysia, is a well-known plant in traditional medicine, especially for treating various ailments, primarily skin disorders. Cassia alata, a member of the Caesalpinaceae family, has been traditionally used in Indian folk medicine for its diverse pharmacological activities, including anthelmintic, antioxidant, antifungal, and anti-inflammatory, anticancer properties. Several bioactive compounds have been isolated from this plant, particularly from its leaves. These include alatinon, alanonal, various flavones, flavanols, flavonoid glycosides, and ?-sitosterol-D-glucoside. While most phytochemicals have been extracted from the leaves, other parts of the plant—such as seeds, flowers, and bark—also exhibit notable antibacterial and antifungal properties and warrant further exploration. The therapeutic effects of Cassia alata are strongly associated with its diverse secondary metabolites, which contribute to its wide-ranging pharmacological actions.
Helminthic parasitic infections pose a significant challenge in livestock production systems, often reducing productivity and health in animals. The conventional strategy for controlling such infections largely relies on the use of anthelmintic drugs. However, the prolonged and widespread application of these drugs has led to the emergence of drug-resistant helminth strains, raising serious concerns about the sustainability of current treatment methods. Since only a limited number of effective compounds are available, careful use and strategic management are essential to prevent further resistance [1]. Helminthiasis, an infection caused by parasitic worms, has been recognized since ancient times and remains prevalent, particularly in tropical and subtropical regions. Anthelmintic agents are substances used to destroy or expel intestinal worms. Those that eliminate parasites without killing them are called vermifuges, while those that kill them outright are known as vermicides. Historically, many early anthelmintics were derived from plant sources. Although many of these are now obsolete, Aspidium remains in occasional use. Notable developments in synthetic anthelmintics include the identification of isothiouronium salts with worm-killing properties, the introduction of mebendazole in 1971, and the synthesis of praziquantel by Seubert in 1975. According to the World Health Organization (WHO), around 1.5 billion people globally—approximately 24% of the world population—are affected by helminth infections. In India alone, about 258 million individuals are infected. Plants from the Cassia genus, especially abundant in India and particularly West Bengal, are known for various medicinal properties. Cassia alata has been traditionally valued for its antimicrobial, antifungal, purgative, anti-inflammatory, analgesic, antitumor, and hypoglycemic effects [2]. Other species like Cassia angustifolia (known for its strong purgative action and its use in managing bowel movements) and Cassia occidentalis (used traditionally as a laxative, diuretic, and for treating fever, skin disorders, anemia, liver problems, and menstrual irregularities) have also been widely employed in traditional medicine. In Indian folk medicine, decoctions prepared from the leaves of C. alata and C. angustifolia are commonly used for treating gastrointestinal worm infestations. These leaves are frequently cited in medicinal plant databases for their relevance in managing intestinal parasitic diseases. Such infections are particularly widespread in developing countries, especially among children, where poor sanitation and hygiene are common (Chan, 1997). Additionally, concerns over the side effects of synthetic drugs have fueled a renewed interest in herbal alternatives, focusing on the therapeutic potential of plant-based remedies [3].
Plant Profile:
General Information: -
Scientific name - Cassia alata
Common name - Candle brush
Origin North America
Availability-Generally available in many areas within with its hardness range.
Biological source: -It consists of fresh leaves of senna alata belongs to family Caesalpiniceae.
Organoleptic Properties: -
Colour: -Green
Odour: -Unpleasant
Taste: -Spicy
Description: -Height: -10-14 feet
Spread: -10-14
Crown uniformity: - irregular outline or silhouette
Crown shape: - Oval
Crown density: - Open
Growth rate: Fast
Fig No. 1: - Cassia alata
Texture: Coarse
Chemical Constituents: -The constituents present in Cassia alata are flavones, flavonols, flavonoids glycosides, alatinon, alanonal and beta-sitosterol-beta-D-glcosides.
Uses: -
METHODS AND MATERIALS:
Extraction and isolation of phytoconstituents: -
Preliminary Phytochemical Screening
Preliminary phytochemical screening of the different crude drug/formulation using alcohol as solvents for the presence of various phytoconstituents was carried out using following methods [5]. For phytochemical screening and further evaluation, the extraction of marketed and in-house formulation of Cassia alata Anthelmintics Gutika were carried out.
Phytochemical Screening:
PHYSICAL EVALUATION:
Determination of Total ash: Total ash method is used to measure the total amount of material remaining after incineration is called total ash. Determination of total Ash value is determined for identity and purity of gutika. A high ash value is indicative of contamination, substitution, adulteration, presence of silica, rice husk or careless in preparing the drug [6,7].
Formula: Percentage of total ash = Weight of ash x 100 /Weight of sample.
Thin Layer Chromatography:
Thin layer chromatography can be defined as a method of separation or identification of a mixture of components into individual components into individual components by using finely divided adsorbent solid (liquid) spread over a glass plate and liquid as a mobile phase. It is based on the principle of adsorption chromatography or partition chromatography or combination of both. TLC plate is prepared by using fur methods i.e. pouring, dipping, spraying& spreading. [5,11] After development of plates, they were air-dried and Rf. values were calculated. The Rf value (Retention Factor) was calculated as follows
Rf= Distance traveled by the sample
Distance traveled by the solvent
Table No. 1: TLC Table
1 |
Standard 1 |
Emodin |
2 |
Standard 2 |
Rhein |
3 |
Mobile Phase |
Toluene: Ethyl acetate: Formic acid |
4 |
Stationary Phase |
Silica Gel |
PHARMACEUTICAL PARAMETERS
1) Hardness:
Hardness the measure of the mechanical integrity of the ghutika it is the force required to break the gutika in a specific plan. the gutika must have a specific strength and hardness to able the with stand mechanical shaking during manufacturing packaging and transport. Pfizer’s tablet hardness tester was use to independently test the randomly chosen tablet [8].
2) Friability test:
The friability is measured by the amount of weight loss following tumbling. friability test is conducted in the Roche friability apparatus by taking 20 gutika. This is consisting of plastic drum that revolves at 25rpm dropping the gutika through 6 inches in a fibrillatory to undergo shock, which is then operated for 100 revolutions the gutika are reweighed. The gutika lose less than 1.0 percent than the ghutika weight are consider as acceptable [8].
3) Disintegration time:
The state in which no residue of the gutika remains on the remains on the screen of apparatus. This test will determine whether the gutika disintegrates within a specified time when it is placed in liquid medium under the control prescribed experimental condition.
Disintegration weight of gutika=15min
4) Dissolution time:
The time required for the dissolve gutika in a sample solution is Dissolution time of gutika is 14min [9,10].
Pharmacological In-Vitro Study:
The anthelmintic study was carried both Ethanolic Extract and Chloroform Extract were dissolved in normal water containing diluted to get concentrations of 10,25,50 mg/ml. Albendazole (10 mg/ml) was used as the standard drug. All the drug and extract solutions were freshly prepared before starting the experiment. Three group, with one earth-worms each, were placed into 10ml of desired formulations as following: Vehicle (normal saline), Albendazole (10mg/ml), and one sets of three different groups were treated with extracts of respective concentrations. Observations were made for the time taken until the paralysis and death of individual worms. The paralysis was said to occur when the worms were not able to move even in normal saline. Death was concluded when the worms lost their mortility followed with fading away their body colors [12].
Fig No .3: Standard Albendazole (10mg/ml)
Fig No.5: Control Group
RESULT:
Table No.2: Organoleptic characteristics of Cassia alata leaflet.
Sr.No. |
Test |
Observations |
1 |
Size |
4.5 cm length and 8 mm width |
2 |
Shape |
Oval & longitudinal |
3 |
Color |
Green |
4 |
Odour |
Characteristics |
Table No.3: Tablet evaluation
Sr.No. |
Test |
In -house tablet formulation |
Marketed formulation |
1. |
Hardness Test (Pfizer tester) |
15kg |
10kg |
2. |
Friability Test |
0.9% |
0.5 |
3. |
Weight Variation Test (80mg% devation) |
±9 |
±10 |
4. |
Disintegration Test |
35minutes |
31minutes |
Table No. 4: Pharmacological In-vitro study
Extract |
Concentration (mg/ml) |
Time required to Paralyze (min) |
Time required to Death (min) |
Control Group |
--- |
--- |
--- |
Ethanolic Extract |
10 50 |
50 15 |
56 18 |
Chloroform Extract |
10 50 |
48 7 |
29 11 |
Albendazole Standard |
10 |
6 |
10 |
Table No. 5: Preliminary evaluation of Crude Drug.
Sr. No |
Experiments |
Observations |
1. |
Ash Value |
4% w/w |
2. |
LOD |
0.40 |
3. |
Extractive Value (%Ethanolic Extract.) |
3gm |
4. |
Extractive Value (%Chloroform Extract.) |
3gm |
Fig No.6: TLC Plate
Table No. 6: TLC Table of Drug Extract
Sr.no |
Drug Extract |
No. of spot |
Rf values(in cm) |
1. |
Ether |
1 |
0.95 |
2. |
Chloroform |
2 |
0.92 |
3. |
Standard (Emodin) |
3 |
0.93 |
4. |
Ethanol |
4 |
0.92 |
5. |
Standard (Rhein) |
5 |
0.92 |
CONCLUSION:
The present study focused on the formulation development and evaluation of Cassia alata leaf extracts for the effective management of helminthic infections. The physicochemical parameters assessed were found to be within acceptable limits as outlined in the standards provided by the Ayurvedic Pharmacopoeia of India (API). Among the different extracts tested, the ethanolic extract of Cassia alata demonstrated the most potent anthelmintic activity, requiring less time to induce paralysis and death of the worms compared to the chloroform extract. Both extracts exhibited a concentration-dependent anthelmintic effect. Preliminary phytochemical screening revealed the presence of several bioactive constituents, including alkaloids, glycosides, flavonoids, and tannins, which are likely responsible for the observed activity. Based on the physicochemical, phytochemical, and pharmacological evaluations, it can be concluded that the prepared formulation exhibits promising anthelmintic potential. These findings support the traditional use of Cassia alata leaves in helminthic infections and may serve as a referential basis for future human clinical investigations.
REFERENCE
Mayank Harne*, Jija Lode, Chitralekha Therkar, To Develop and Evaluate A Tablet Formulation Containinng Cassia Alata Leaf Extract for Its Effectiveness in The Management of Helminthic Infections, Int. J. Sci. R. Tech., 2025, 2 (8), 27-32. https://doi.org/10.5281/zenodo.16742272