SAR analysis demonstrates that introducing chlorine into the quinone scaffold, in combination with highly lipophilic aryl substituents such as trifluoromethyl, significantly enhances binding affinity.
Computational findings support the prioritization of X14 for further experimental validation in glioblastoma therapy, and generally favorable ADMET profiles were observed, hepatotoxicity alerts were predicted for all compounds, which represents an important limitation supporting the prioritization of X14.
A comprehensive computational approach was used to identify novel ligands with potent inhibitory activity against various indenoquinoxaline-phenylacrylohydrazide hybrids, highlighting a promising lead compound for further in vitro and in vivo investigations targeting α-amylase inhibition.
This study highlights natural diterpenoids and coumarin glycosides as promising scaffolds for caspase-1 inhibition and demonstrates that integrating QSAR modeling with structure-based approaches provides an efficient strategy for discovering potential anti-inflammatory drug candidates.
Structural-activity relationship analysis indicated that the electron-withdrawing substituents at the para-position of aryl ring, together with nitrogen-containing heteroaromatic moieties, improve both binding affinity and free radical scavenging activity.
The findings from molecular docking, 500-ns molecular dynamics simulations, MM-GBSA calculations, and alanine scanning analyses collectively corroborate a stable binding mode of BTB11556 within the MPO active site, support further investigation of BTB11556 as a candidate compound associated with MPO-targeted therapeuti...
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