EVALUATION OF OCIMUM BASILICUM FOR ANTINOCICEPTIVE EFFECTS: IN VIVO AND IN SILICO APPROACHES

Main Article Content

Nimrah Zafar
Shabana Naz
Azhar Rafique
Asma Ashraf

Keywords

Nociceptive, cholinergic and K channel blockers, noradrenergic, docking parameters, opioidergic, pain

Abstract

Objective Pain is a major health issue. Pain has different forms. Pain affects about 30% of the global population, making it a significant public health concern.


 Methods: The ethanolic seed extract was used for the in vivo trial. Assessment of the peripheral analgesic activity was conducted through the acetic acid-induced test, while the assessment of central antinociceptive activity was carried out using formalin-induced tests alongside heat-induced pain techniques, specifically the hot plate and tail immersion methods. Additionally, potential pathways involved in the analgesic effect were also investigated. Swiss ADME web server was used to predict compounds' ADME and Pyrex was used for molecular docking computational research. Key Finding: In the acetic acid-induced writhing assay, the intensity of the writhing response was diminished to the administered dose. For both phases of the formalin-induced licking test, a maximum decrease in biting time and licking. A dose-dependent response was observed in the hot plate method and tail immersion approach. Mechanism involvement was also shown significant results but, terazosin did not affect the analgesic efficacy of EEBOS. The computational analysis identified 3 phytocompounds that demonstrated favourable interactions with 1SG1 receptor protein, showing high binding affinities and meeting the docking criteria.


Conclusion: The collective results of these studies showed that O. basilicum has both central and peripheral antinociceptive activities that lend credence to its traditional medical use.

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