PPHARMACOGNOSTIC STUDIES OF ELAEAGNUS ANGUSTIFOLIA L. FROM BOI, DISTRICT ABBOTTABAD

Main Article Content

Aymin Laraib Syed
Nain Taara Bukhari
Tayyaba Bibi
Malik Faizan Shaukat
Hamid Ali Khan
Nosheen Khalid
Iqbal Nisa
Nabila Qayum
Atiya Hussain Khowaja
Babar Khan
Sayab Khan
Syed Shehzad Ali Shah
Ghulam Mujtaba Shah

Keywords

Anti-microbial activity, Bioassay, Culture media, Elaeagnus angustifolia L, MDR microbial strains, Nano particles, Pharmacognosy.

Abstract

Elaeagnus and Elaeagnus angustifolia L. are thought to be the most ancient genera in the Elaeagnaceae family. There are perhaps 50–70 species in these families. The microscopic characteristics of the leaves and stems include their size, fracture, odor, size, and flavor. Microscopical analysis reveals vascular bundles, the top and lower leaf surfaces, trichomes, parenchyma, and sclerenchyma cells, as well as the stomatal index. Methanolic, ethanolic, and distilled water extracts of both parts were also studied for their phytochemical properties. The results of phytochemical analysis showed that secondary metabolites, such as sugars, oils, phenols, and alkaloids, among others, exist. The goal of the current study was to evaluate this plant's anti-bacterial, anti-fungal, and antioxidant properties. The anti-bacterial activity was examined using several bacterial strains. Plant shown strong resistance against bacterial strains. The highest zone of inhibition for the bacterial strain Salmonella typhi was seen in the leaf and leaf extract (22mm) and in the stem (21mm). In addition, plants demonstrated potent anti-fungal efficacy against diverse fungi strains. The fungal strain Mycosphaerella citri, which is measured at 15mm in the stem methanolic extract and 17mm in the leaves, has the biggest estimated zone of inhibition. Through DPPH, the antioxidant capacity of plants was also examined. Elaeagnus angustifolia L. demonstrated plants' high antioxidant capability. On plants, cytotoxic and phytotoxic activities were carried out as well. Lemna Minor L. was utilized against the research plant to examine any potential phytotoxic effects. Results indicated that the plant has a high level of phytotoxicity, therefore it will likely be employed as a weedicide going forward. Using brine shrimps (BSLA), cytotoxic activity was also performed on plants; the leaves and stem of the plants displayed cytotoxic effects.

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