BIOACTIVE COMPONENTS OF PAEDERIA FOETIDA LINN. AND ITS ROLE IN DISEASE MANAGEMENT
HTML Full TextBIOACTIVE COMPONENTS OF PAEDERIA FOETIDA LINN. AND ITS ROLE IN DISEASE MANAGEMENT
Abu Mahammad Makiuz Zaman, Ankur Kumar, Suman Kumar *, Lima Patowary, Susankar Kushari and Lothungbeni Ovung
Department of Pharmaceutical Chemistry, Girijananda Chowdhury Institute of Pharmaceutical Science, Guwahati, Assam, India.
ABSTRACT: Paederia foetida is one of the lesser-studied plants that has been utilized as food and medicine by several ethnic groups against stomach pain, bowel disease, snake bite, bone fractures burns, or scalding. Scientific research revealed that the plant exhibits extensive pharmacological activity, including antidiarrheal, antibacterial, anti-inflammatory, anti-diabetic, antiemetic, antioxidant and anti-rheumatoid. Based on the online poll results, information was acquired about P. foetida's transition from traditional use to scientific validation. Moreover, qualitative and quantitative phytochemical analysis of the plant indicates the presence of 36 important chemical constituents such as; methyl-mercaptan, phenolic, high percentage of minerals, urosolic acid, β-sitosterol, oleanolic acid, arachidic acid. The different phytoconstituents of the plant justify the ethno-medicinal and pharmacological application of the plant. In conclusion, the results of this analysis will produce a new, safe, and low-cost therapeutic strategy for identify and isolate novel chemical entities in drug discovery. Additionally, it may aid in separating fresh lead compounds for future clinical study research. This plant could be an excellent source of safe and effective medicinal and nutritional herbal remedies for human and animal consumption.
Keywords: Paederia foetida, Phytochemistry, Ethnobotany, Biological action
INTRODUCTION: Over the past decades, Herbal and Ayurvedic drugs have been considered a subject of World importance with medicinal and economic implications 1. Researchers are mainly focusing on the traditionally used medicinal plants by various ethnic groups to develop medication against different ailments. Paederia foetida is one of the most highly used medicinal plants mainly in the northeastern region of India and is well known for its gastro-protective and anti-diarrheal activity. It is widely available in India, Bangladesh, Japan,
China, Malaysia, Myanmar, Nepal, Thailand, Vietnam, Philippines, Cambodia, and Bhutan. Many ethnic groups have used this plant as a medicine for various health problems since ancient times. The main objective of this review is to accumulate information about different pharmacological activities along with the plant's active constituent, which will give an idea about the previous work on this plant.
Paederia foetida belonging to the Rubiaceae family, is a herbaceous climber with a wide range of applicability in society 2. This distinctive plant can grow up to 1500-1800cm in height producing small pink white color flowers in clusters. Flowers are generally bell shapes, 5-15 mm into 2-6 mm. The flower includes five stamens inserted in the middle of the flower tube, including long anthers 2. The fresh leaf of the plant is generally 10-15 cm long, 5-6 mm wide, and petiole 1.2-6 cm; the surface is glabrous and mostly ovate, green in color, having a characteristic odor. The leaf is distinctly dorsiventral with prominent midrib and lamina. Trichomes are present on both surfaces elongating to produce uniseriate trichomes and mesophyll is composed of single-layered palisade cells and 3-4 layer spongy tissue. The midribs are composed of single-layered epidermis covered with cuticles, ground tissue consists of 2-5 layered collenchyma towards the upper and lower side of parenchyma 3. Aerial parts contain methyl mercaptan, cysteine, keto alcohol, paederolone, a keto compound, paederepne and betasitosterol, protein, carbohydrates, glycosides, essential oils, quinines, alkaloids, iridoid glycosides, sitosterol, stigmasterol, amino acids and volatile oil 4. The common name of Paederia foetida is enlisted in Table 1.
TABLE 1: COMMON NAME OF PAEDERIA FOETIDA
Language | Vernacular Name | Reference |
English | King’s tonic, Skunk vine | Tanet al.,201917 |
Chinese | Ji shi teng | Tan et al.,201917 |
Malaysian | Akar sekentut | Tan et al.,201917 |
Assamese | Bhedailota | Das S et al., 201318 |
Bengali | Gandhavadulia | Wang et al., 201419 |
Odisha | Pasaaruni | Saho et al., 200920 |
Hindi | Ghandhali | Saho et al., 200920 |
Manipuri | Oinam | Shah et al., 201421 |
Sanskrit | Prasarini | De S, Ravishankar B & Bhavsar et al., 199422 |
Geographical Location: The plant is widely distributed in Bangladesh, India, Japan, Malaysia, Myanmar, Nepal, Thailand, Vietnam, Cambodia, and China 5. The plant favors a humid, sunny region and is adaptable to different soils. It is found in the Himalayas from Dehradun eastward up to an altitude of 1800 m and also in Bihar, Odisha, Bengal, Assam, Manipur, Nagaland, Tripura, Arunachal Pradesh, Sikkim and Mizoram 11.
Traditional Uses: Mostly tribal people of northeast India use the decoction of the plant for various medicinal purposes. Tribes of Tripura prepare Berma baturi using dry fish and leaves of Paederia foetida. Similarly, tribal people of Chittagong hill of Bangladesh and Aka tribes of Arunachal Pradesh consume leaf juice to treat diarrhea, dysentery and gastric irritation 12. Manipuri people use the plant's curry to treat piles 13. It has been reported that certain ethnic communities of Orissa cook the leaves with rice to cure different diseases like rheumatism and gout 12. Assamese people cook this leaves with fish to treat stomach problems. This plant has been used to treat toothaches, dysentery, edema, night blindness, digestive problems ulceration, diabetes and inflammation 5 gout, piles, stomachache, ulcer 8. Besides that it had been reported for significant antiviral anti-inflammatory, anticancer, anti-tussive, analgesic 11, anti-helmentic 14 and antioxidant activity. The root of this plant has been utilized in emetic, emollient, carminative, chest pain and regulation of the spleen inflammation 10.
Phytochemistry: The main parts of Paederia foetida used for its medicinal activity are leaf, root, bark, and flowers. It contains optically active iridoid glycosides. Cyclopentanoid, Monoterpenes. Paederoside, Asperuloside, and Scandoside are the main Iridoid glycosides. These glycosides are responsible for antioxidant, antibacterial, anti-inflammatory, anti-diabetic, and epatoprotective activity. The plant also contains alkaloids and volatile oils which can be isolated by using steam distillation from leaves and stems.
On the contrary, many mineral elements like nitrogen, phosphorus, potassium, and magnesium are also found in the plant. The bitter taste and foul-aroma are due to the presence of methyl mercaptan 5. The presence of triterpenoids, saturated fatty acids and β-sitosterol is responsible for its anti-ulcer activity 12. The leaves also contain a small amount of Vitamin C and phenolic compounds responsible for its antioxidant activity 12. Different types of phytoconstituents isolated from the plant are listed in Table 2.
TABLE 2: PHYTOCONSTITUENTS ISOLATED FROM THE PAEDERIA FOETIDA
Active constituents | Plant part | References |
Volatile Oil | ||
Butanedione | Stems | Wang L et al., 201419 |
Pentan-2-on | Leaves | Wang L et al., 201419 |
Pant-3-en-2-one | Leaves, stems | Wang L et al., 201419 |
S-methyle thioacetate | Leaves | Wang L et al., 201419 |
Dimethyle-disulfide | Leaves, stems, flowers | Wang L et al., 201419 |
Hexanal | Leaves, stems, flowers | Wang L et al., 201419 |
Limonere | Leaves, stems | Wang L et al., 201419 |
3-methylebutane-1-ol | Leaves, stems | Wang L et al., 201419 |
Pantane -1 ol | Leaves, flowers | Wang L et al., 201419 |
3-methylbut-2-en-1-ol | Leaves, stems | Wang L et al., 201419 |
Hexanol | Leaves, stems, flowers | Wang L et al., 201419 |
Hex-3-en-1-ol | Leaves | Wang L et al., 201419 |
Dimethyl trisulfide | Leaves, stems | Wang L et al., 201419 |
S, s-dimethyl dithiocarbonate | Leaves | Wang L et al., 201419 |
Phenylacetaldehyde | Leaves and stems | Wang L et al., 201419 |
2-furanmethanol | Leaves stems flowers | Wang L et al., 201419 |
Benzofuran | Leaves stems flowers | Wang L et al., 201419 |
α-terpinrol | Leaves stems flowers | Wang L et al., 201419 |
Methyl salicylate | Leaves stems flowers | Wang L et al., 201419 |
Nerol | Leaves stems flowers | Wang L et al., 201419 |
Geraniol | Leaves stems flowers | Wang L et al., 201419 |
Eugenol | Leaves stems | Wang L et al., 201419 |
2,3-dihydrobnezofuran | Leaves stems flowers | Wang L et al., 201419 |
Glycosides | ||
Asperuloside | Leaves stems flowers | Chanda S et al., 201324 |
Scandoside | Leaves stems flowers | Chanda S et al., 201324 |
Paederoside | Leaves stems flowers | Chanda S et al., 201324 |
Paederosidic acid | Leaves and Stems | Wang L et al., 201419 |
Deacetylasperuloside | Leaves and Stems | Wang L et al., 201419 |
Alkaloids | ||
Paederine a | Leaves and stems | Chanda S et al., 201324 |
Paederine b | Leaves and stems | Chanda S et al., 201324 |
Essential Oils | ||
Linalool | Leaves, stems and flowers | Chanda S et al., 201324 |
Methyl mercaptan | Leaves, stems and flowers | Chanda S et al., 201324 |
Tepineol | Leaves, stems and flowers | Chanda S et al., 201324 |
Geraniol | Leaves, stems and flowers | Chanda S et al., 201324 |
2-methyl-3-ethylmaleic anhydride | Leaves, stems and flowers | Chanda S et al., 201324 |
Pharmacological Activity:
TABLE 3: ACTIVITIES OF PAEDERIA FOETIDA
Activity | Pharmacological effects | References |
Antioxidant effect | Decreases free radicals in-vitro (DPPH, ABTS, EDA assay). Inhibition of lipid peroxidation and increase. SOD, GPx, and CAT. | Tan et al.,201917,
Kumar V et al., 201428 |
Anticancer effect | Inhibit cellular viability and induced apoptosis. Inhibition of DNMT1, HDACs and proinflammatoryIL-6, IL1-β, TNF-α, and anti-inflammatory IL-10 genes in cancer and THP1cell lines. Expression of E-caderin (CDH1) and proapoptoticgene Bax increases significantly. Increase cytotoxicity in brine shrimp lethality bioassay. | Pradhan et al., 201929
Sayeed MA et al., 201331 |
Anti-arthritic effect | Protection against CFA induced arthritis | Kumar V et al., 201532 |
Anti-hyperlipidemic | Lowering the level of lipid profile and decreasing the intercalated disc space in the heart. | Kumar V et al., 201428 |
Gastroprotective | Anticipated inhibition of H2 receptors resulting in decrease gastric acid secretion. | Reddy KS et al., 201133 |
Antidiarrhoeal | Decrease purging index value (PI). Decrease intestinal motility | Afroz S et al., 200634 |
Hepatoprotective | Decrease blood urea nitrogen (BUN), bilirubin, AST, ALT, triglycerides, and total cholesterol. | Borgohain MP et al.,201730 |
Renoprotective | Decrease concentration of thiobarbituric reactive substances in renal tissue. It showed dose-dependent inhibition of NF-Kb activation in the kidney | Borgohain MP et al.,201730 |
Anti-bacterial | Most effective in the growth of 8 muti-drug resistant enteropathogenic bacteria | Rath S et al., 201535 |
Analgesic activity | Involvement of endogenous opioids peptides in the mediation of analgesic activity | Das S et al., 201236 |
Thrombolytic activity | It produces positive control to streptokinase | Ahmed A et al., 201437 |
Anti-diabetic activity | Inhibit α-amylase and α-glucosidase | Tan et al.,201917 |
Anti-diabetic Activity: Diabetes is a common endocrine disorder that occurs due to disturbances in carbohydrate metabolism. Inadequate secretion of insulin may be a significant cause of diabetes. Researchers are always trying to develop an alternative therapy using medicinal plants as additional therapy besides insulin therapy. Most of the studies on Paederia foetida have shown that it can help in reducing blood glucose levels. Vikash Kumar et al. has performed in-vivo anti-diabetic activity of Paederia foetida leaf extract on streptozocin induced diabetic albino Wistar rats. Three doses of PF leaves extract (100, 250, 500mg/kg) and standard glibenclamide were administered for 28 days to decrease the blood glucose level. It was reported that the maximum lowering of blood glucose level observed was 69.12% at the dose of 500mg/kg. The remaining two-dose 100 and 250mg/kg also showed a remarkable lowering of blood glucose level 55.74% and 61.76% 26.
D.C Tan et al. reported the pronounced reduction of blood glucose level based on α-amylase and α-glucosidase inhibitory assay. The chloroform extract showed remarkable α-amylase and α-glucosidase inhibitory activity with an IC50 value of 9.60±0.01 mg/mL and 245.6±0.01 mg/mL respectively 5.
PF chloroform extract showed the highest anti-diabetic activity based on the two enzymatic inhibition assay models. PF chloroform extract inhibited α-amylase activity with an IC50 value of 9.60 ± 0.01 mg/mL comparable to standard acarbose (16.37 ± 0.01 mM). The inhibitory potential of the PF chloroform extract was significantly different (p<0.05) from that of other extracts. The PF chloroform extract also showed the strongest inhibition on the α-glucosidase enzyme among all the extracts with IC50 of 245.6 ± 0.01 mg/mL and p<0.05. Similarly, it shows a significant effect on the oral glucose tolerance test. Oral administration of different doses of PF extract and glibenclamide significantly decline (P <0.001) the rise in blood glucose levels, after glucose administration.
After loading the glucose, it was observed that glucose control group rats showed higher AUC glucose values. Oral administration of the different doses of the PF (100, 250and 500 mg/kg) showed significantly (P < 0.001) lowers AUC glucose values as compared to the glucose control group rats 26.
Gastroprotective Activity: Peptic ulcer disease is the inability of gastric or duodenal mucosa to resist the corrosive hydrochloric acid powder. Other than these Helicobacter pylori infection and oxidative stress are the major cause of the development of a gastric ulcer. Silpi Chandra et al., 2015 has investigated the anti-ulcer activity of Paederia foetida on an animal model and observed inhibited gastric acid secretion and acid output in a dose-dependent manner by the administration of methanolic extract of two different doses (100 and 200mg/kg) of Paederia foetida on indomethacin-pylorus ligation model.
The gastric ulcer index was significantly decreased, showing 72 and 78% ulcer protection at 100 and 200mg/kg doses, respectively. After statistical analysis, the effect was found highly significant (p<0.001) for both doses. Similarly, it showed significant ulcer protection i.e. 59% and 72% to oral administration of ethanol-induced ulceration, whereas standard drug sucralfate showed 81% ulcer protection.
These doses also showed highly significant dose-dependent ulcer protection (62% and 67%) to the stomach mucosa of rats against the water immersion stress-induced ulcer (WISIU) model. In contrast, standard drug lansoprazole showed 70% protection. Similarly, the root extract of PF shows a significant result in pylori ligated ulceration and aspirin-induced model 21. It significantly reduces the gastric acid volume to a significant extent P˂0.01 whereas ranitidine reduced the volume of P˂0.001. The ulcer index was significantly reduced with all the test samples. The order of reduction of ulcer score observed was ranitidine˂ ethanol extract˂ aqueous extract. Similarly, in the case of the aspirin-induced ulceration model, the PF extract reduces the ulcer index significantly. It accelerates the ulcer healing by forming an ulcer adherent complex.
Cardiovascular Disease: Cardiovascular disease is a complex and multifactorial disease that includes elevation of lipids, increased plasma fibrinogen and coagulation factors, and increased platelet activation. The reactive oxygen species leads to the oxidative modification of LDL, which is considered as the major causative factors for the development of atherosclerosis 16. The STZ-treated diabetic rats are found to have increased levels of cholesterol, triglyceride, LDL (low-density lipoproteins) VLDL (very low-density lipoproteins) and decreased HDL (high-density lipoproteins) compared to the normal control rats. Oral administration of different doses (100mg/kg, 250mg/kg and 500mg/kg p.o.) of extract showed percentage reduction in cholesterol (14.80%, 22.90%, 32.82%), triglyceride (11.48%, 21.07%, 33.72%), LDL (26.82%, 44.18%, 65.08%) and VLDL (11.48%, 21.07%, 33.72%), compared to the diabetic control rat group and the level of HDL (29.93%, 49.64%, 69.34%), was increased when compared to the diabetic control rat. Oral administration of 500mg/kg showed maximum benefits compared with other doses and standard drug glibenclamide in reducing the level of cholesterol, triglyceride, LDL and VLDL and increasing the level of HDL compared to the STZ induced diabetic control rat 16.
Cytotoxic Activity: Cancer is a complex multifactorial disease arising through genetic and epigenetic factors. Proinflammatory stages are associated with multiple tumor development factors. The cytotoxic activity of Methanolic extract Paederia foetida (MEPF) is because of lupeol and β- sitosterol, which was examined by colorimetric MTT assay in both prostate cancer cell lines, PC-3 and DU-145 as well as in normal keratinocyte cells (HaCaT). A remarkable decrease in cellular viability was observed with an increase in the concentration of drugs in prostate cancer cell lines. But in the case of normal HaCaT cells, no significant lethal effect was observed as compared to the other two drugs and almost all cells remain viable even at a higher concentration of all drugs. The IC30 values of MEPF, lupeol and β-sitosterol for PC-3 cells were found to be 20mg/ml, 50μM and 80μM respectively and for DU-145 values were 1 mg/ml, 40μM and 70μM respectively. Similarly, in the THP1 cell line, cell viability assay was performed with varying concentrations of MEPF, lupeol and β-sitosterol for 24 h. A reduction in cell viability in a dose dependent manner was observed. IC50 values of MEPF, lupeol and β-sitosterol in THP1 cells lines were found to be 25 mg/ml, 40 μM, and 120 μM respectively. Similarly, Methanolic extract of PF showed remarkable cytotoxic Activity with LC50 value 51.59μg/ml, compared to vincristine sulfate, a reference drug, LC50 0.52 μg /ml.
Antioxidant Activity: The crude extracts of Paederia foetida are well known for their antioxidant activity. Many researchers have investigated the activity using different solvent systems and assay techniques like DPPH, ABTS, SO and FRAP. The chloroform extract showed the strongest scavenging activity followed by ethyl acetate with IC50 values of 27.27±0.01 and 35.85±0.05 12. Moreover, Ojha et al. studied the change in antioxidant activity according to storing conditions. The fresh and shade dried leaf shows different maximum activity to methanol extract for 48-hour duration 27.
Antimicrobial Study: Morshed et al., have performed the antimicrobial assay by using the disc diffusion method. All the fractions of the plant, like methanol, n-hexane, ethyl acetate, and chloroform, were tested against gram-positive, gram-negative bacteria and fungal strains. The investigation showed that methanol extract of the whole plant neither possesses anti-microbial nor having antifungal activity at a concentration of 300μg where standard Kanamycin (30μg/disc) showed a zone of inhibition of 32-39 mm. The study was done for two times for the confirmation of no inhibitory effect.
But, in case of n-hexane fraction of the whole plant, it shows a moderate antibacterial activity for two gram-positive bacteria like Bacillus cereus (12mm) & Staphylococcus aureus (14mm) & two gram-negative strains Escherichia coli (18mm) and Vibrio mimicus (16mm) where Pseudomonas aeruginosa (10mm) possess less effect in-contrast to standard Kanamycin. The experiments also revealed that n-hexane extract possesses a very less antifungal activity for Candida albicans (8mm) & Sacharomyces cerevacae (7mm) 28.
Anti-inflammatory Activity: Subrata de et al., reported that PF extract possesses significant anti-inflammatory activity in the cotton pellet granuloma model of inflammation. It remarkably decreases the inflammation 52% and 59% at 100mg/kg b.w. and 200mg/kg b.w. respectively 10. Das et al., showed that the ethanolic extract of PF of dose 500mg/kg b.w. produce a significant reduction of carrageenan induced paw edema 24.
Anti-diarrheal Activity: Paederia foetida produced a remarkable anti-diarrheal effect in mice at 200 and 300mg/kg in castor oil-induced diarrhea. The aqueous and ethyl acetate extract showed significant (p<0.001) decreased number of excreted feces after oral administration of castor oil. For aqueous extract the values are 7.20±0.37 (200mg/kg) and 6.40±0.51 (300mg/kg), whereas, for ethyl acetate extract the values are 7.20±0.37 (200mg/kg) and 6.40 ±0.51 (300mg/kg). On the other hand, standard drug loperamide decreased the number of feces to 4.80±0.37 at the dose of 5mg/kg compared to the control group 4. On the other hand, the ethanolic extract of PF leaves is found effective on acetic acid-induced colitis. It results in significant improvement in colon architecture macroscopically and microscopically. It reduces the ulcer size and improves the tissue level of CAT, SOD (P < 0.05) and decrease in the levels of MPO, MDA (P < 0.05). However, the standard drug 5-ASA showed improvement in all parameters 24.
Anti-arthritic Activity: Arthritis is a chronic, systematic, and typical inflammatory disease that influences more than 1% of the total population globally. The pathological process involves swellings in joints, destruction of gristle and progressive ruination of subchondral bone and cartilage. Complete Freund's adjuvant (CFA) contains 1 mg/ml of dry heat killing tubercle bacillus (Mycobacterium tuberculosis) per sterile paraffin oil. CFA produced the inflammation through the liberation of blood cells, mastocyte activation, cytokines and the formation of free radicals. Subcutaneous injection of CFA caused serve arthritis throughout the rat hind paw. CFA induced rats treated with PF significantly (P<0.001) inhibited the paw edema a dose-dependently. While the oral administration of PF (25 mg/kg b.w.), restrained the paw edema 1.158 with 28.61% inhibition, the paw edema followed by 50 mg/kg b.w. was 0.982 with 39.46 % inhibition and that at 100 mg/kg b.w. was only 0.65 with 59.93% inhibition. The paw edema inhibition with the indomethacin (10 mg/kg b.w.) was 0.71 with 56.23% inhibition 20.
Analgesic Activity: The ethanolic extracts of the leaves of Paederia foetida produced significant analgesia, bothcentrally and peripherally. The combination of ethanolic extract (500 mg/kg s.c) of the plant and pethidine (5mg/kg i.p) along with the combination of the ethanolic extract (500mg/kg orally) and aspirin (100mg/kg orally) showed a significant reduction of the paw edema and increasing retention time induced by carrageenan thereby suggesting a good analgesic activity 24.
Anti-pyretic Activity: Mir Muhammad Nasiruddin et al., revealed that methanol and chloroform extracts of the plant showed significant antipyretic activity similar to that of paracetamol. The lower dose of methanol (200 mg/kg b.w) and chloroform (200 mg/kg b.w) showed a maximum reduction of temperature. Moreover the extracts (200 mg/kg b.w) showed significant (*p<0.05; **P<0.01) antipyretic activities in mice 29.
Nephroprotective Activity: Borgohain et al., 2017 reported that the methanolic extract of Paederia foetida leaf has a predominant nephroprotective action in the early stage of diabetics mellitus. This action is due to attenuation of renal oxidative stress and inhibition of NF-kB which is responsible for renoinflammation. They also reported that the creatinine clearance, an index of GFR, was significantly reduced in the diabetic untreated rats. A significant improvement was observed while treated with MEPF; especially at the 500 mg/kg b.w dose. Diabetic control rats exhibited marked elevated serum bilirubin, BUN, AST, and ALT; whereas serum albumin content significantly decreased. Although MEPF oral administration reversed these changes, the effects were more pronounced at 500 mg/kg b.w.
On the other hand, concerning plasma lipid contents (TRIGs & TCHOL), MEPF in both 250 and 500 mg/kg b.w. doses; significantly normalized its level. The standard drug GLB showed overall significant results 18.
CONCLUSION: This review article provides the maximum information of Paederia foetida about its traditional, phytochemicals, nutritional, Pharma-cological benefits in society. The plant is widely distributed in South Asian countries like Bangladesh, India, Japan, Malaysia, Myanmar, Nepal, Thailand, etc. Thus the therapeutic value can reach a vast population in the world. It can be considered as a part of the diet to influence the degree of protection.
CONFLICTS OF INTEREST: The authors don’t have any conflicts of interest.
ACKNOWLEDGMENT: We are thankful to the Principal, GIPS, Guwahati, Assam, India, for providing the necessary support for the successful completion of the study.
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How to cite this article:
Zaman AMM, Kumar A, Kumar S, Patowary L, Kushari S and Sarma H: Bioactive components of Paederia foetida Linn. and its role in disease management. Int J Pharm Sci & Res 2023; 14(8): 3686-93. doi: 10.13040/IJPSR.0975-8232.14(8).3686-93.
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Article Information
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3686-3693
581 KB
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English
IJPSR
Abu Mahammad Makiuz Zaman, Ankur Kumar, Suman Kumar *, Lima Patowary, Susankar Kushari and Lothungbeni Ovung
Department of Pharmaceutical Chemistry, Girijananda Chowdhury Institute of Pharmaceutical Science, Guwahati, Assam, India.
smnkmr33@gmail.com
15 November 2022
21 May 2023
23 May 2023
10.13040/IJPSR.0975-8232.14(8).3686-93
01 August 2023