Antimicrobial Activity of Novel Triterpenoid Derivatives Isolated from Ethyl Acetate Extract of Cassia fistula Stem Bark: In-vitro and In-silico Analysis
Abstract:
Standard
treatments for bacterial infections are becoming increasingly ineffective as
antibiotic resistance grows worldwide. Due to the overuse of antibiotics,
multidrug-resistant bacteria have emerged as a serious hazard and a major
worldwide healthcare issue in the twenty-first century. Traditional approaches
to creating novel antibacterial medications are insufficient to fulfil the
existing pipeline, hence new tactics in the field of antibacterial discovery
are being developed. Cassia fistula (C.fistula), a member of the Leguminosae
family, naturally contains antibacterial properties. The plant is used to cure
skin diseases, liver problems, tuberculose glands, and hematemesis, pruritus,
leucoderma, and diabetes. As a result, effective antimicrobial treatment beyond
antibiotics is critical. The Plants contain a wide range of secondary
metabolites, including tannins, terpenoids, alkaloids, flavonoids, and
glycosides, which have antibacterial characteristics. Terpenenes and terpenoids
are effective against bacteria, fungus, viruses, and protozoa. Terpenes' mode
of action involves lipophilic chemicals disrupting membranes. Adding a methyl
group to increase the hydrophilicity of kaurene diterpenoids decreased their
antibacterial efficacy significantly. In the study, antibacterial screening
assay against S.aureus and K.pneumonia, a new chemical isolated from
C.fistula's ethyl acetate extract demonstrated wider inhibitory zones than the
positive control. The treated culture's genomic DNA profile remains unchanged after
treatment with the new chemical. The new chemical suppressed protein synthesis,
resulting in reduced protein content in treated cultures of both strains,
confirming its bactericidal effect. Further immune-blot analysis is required to
confirm the particular protein. Investigating a novel triterpenoid that reduces
pharmaceutical drug load and resistance risk, as well as treatment costs, could
offer promising therapeutic options for treating secondary urinary tract
infections associated with diabetes.
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