IN VITRO ANTI-INFLAMMATORY, IN SILICO MOLECULAR DOCKING ANALYSIS, AND PHYLOGENETIC ANALYSIS OF CURCUMA NEILGHERRENSIS

Background: Plants not only supply vital nutrients for people, but also contain physiologically active phytochemicals that are advantageous for human life and the management of several ailments. The herbal plants are regarded as a treasured reservoir of possible anti-inflammatory phytochemicals. Objective: The present work was focused at analyzing the in vitro anti-inflammatory properties and in silico analysis of the saponins extracted from the Curcuma neilgherrensis roots. Methodology: The total saponins were extracted from the root extract of C. neilgherrensis. The anti-inflammatory effectiveness of the total saponins from the roots of C. neilgherrensis was examined by albumin denaturation inhibition analysis and membrane stabilization analysis. In silico studies and phylogenetic studies were done to detect the protein components responsible for the therapeutic effects of C. neilgherrensis, including cytochrome c oxidase subunit 1, ribulose bisphosphate carboxylase large chain, maturase K, and ATP synthase subunit 1. Results: The total saponins obtained from the roots of C. neilgherrensis demonstrated an effective anti-inflammatory properties in vitro, which is evidenced by its inhibitory effects on albumin denaturation and HRBC membrane stabilization. The findings of an in silico molecular docking analysis and phylogenetic analysis demonstrated the possible roles of cytochrome c oxidase subunit 1, ribulose bisphosphate carboxylase large chain, maturase K, and ATP synthase subunit 1 protein molecules in the therapeutic effects of the saponins extracted from C. neilgherrensis roots. Conclusion: The present study demonstrated that the total saponins extracted from the roots of C. neilgherrensis revealed an encouraging anti-inflammatory potentials. Thus, it was clear that C. neilgherrensis has the capacity to be beneficial in treating diseases related to inflammation in the future.