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Highly efficient synthesis of isoxazolones and pyrazolones using g-C3N4·OH nanocomposite with their in silico molecular docking, pharmacokinetics and simulation studies

Shivani Soni, Sunita Teli, Pankaj Teli, Anu Manhas, Prakash C. Jha, Shikha Agarwal

2024Scientific Reports11 citationsDOIOpen Access PDF

Abstract

OH nanocomposite as a highly efficient catalyst at room temperature in aqueous environment. This innovative approach yielded all the desired products with exceptionally high yields and concise reaction durations. The catalyst was well characterized by FT-IR, XRD, SEM, EDAX, and TGA/DTA studies. Notably, the catalyst demonstrated outstanding recyclability, maintaining its catalytic efficacy over six consecutive cycles without any loss. The sustainability of this methodology was assessed through various eco-friendly parameters, including E-factor and eco-score, confirming its viability as a green synthetic route in organic chemistry. Additionally, the gram-scale synthesis verifies its potential for industrial applications. The ten synthesized compounds were also analyzed via a PASS online tool to check their several pharmacological activities. The study is complemented by in silico molecular docking, pharmacokinetics, and molecular dynamics simulation studies. These studies discover 5D as a potential candidate for drug development, supported by its favorable drug-like properties, ADMET studies, docking interaction, and stable behavior in the protein binding cavity.

Topics & Concepts

PyrazolonesIn silicoDocking (animal)PharmacokineticsNanocompositeComputational biologyChemistryCombinatorial chemistryPharmacologyMaterials scienceNanotechnologyBiologyMedicineBiochemistryMedicinal chemistryVeterinary medicineGeneMulticomponent Synthesis of HeterocyclesSynthesis and biological activityChemical Synthesis and Reactions
Highly efficient synthesis of isoxazolones and pyrazolones using g-C3N4·OH nanocomposite with their in silico molecular docking, pharmacokinetics and simulation studies | Litcius