Organo Mediated Sustainable Synthesis and In‐Silico Studies of Novel Benzisoxazole‐Chromene Acyl Hydrazones as AChE Inhibitors

Author:

Govada Grace Victoria1,Bhatt Harshil2,Panjacharam Paranimuthu1,Pal Sanjivani1,Kumar Sanjit3,Lin Chun‐Cheng4,Rajasekhara Reddy Sabbasani1ORCID

Affiliation:

1. Advanced Catalysis laboratory Vellore Institute of Technology (VIT) Vellore 632014 India

2. Center for Bio Separation Technology Vellore Institute of Technology (VIT) Vellore 632014 India

3. Department of Biotechnology School of Interdisciplinary Education and Research Guru Ghasidas Vishwavidyalaya University 495009 Bilaspur India

4. Department of Chemistry National Tsing Hua University Hsinchu 30013 Taiwan

Abstract

AbstractA new class of benzisoxazole‐Chromene (BC) analogues containing acyl hydrazones BCA (5a5m) were obtained by the condensation of different benzo hydrazides with BCs in good yield. All the synthesized BCA analogues were evaluated for their in‐silico activity against Acetylcholine Esterase (AChE). According to docking experiments, the co‐crystallized ligand was outperformed by derivatives 5e (4‐benzisoxazole‐chromene‐3‐(4hydroxyphenyl) acrylohydrazide), 5m (7‐chloro,4‐hydroxy) and 5l (8‐methyl, m‐nitro) showed superior binding modes and binding free energies whereas compound 5j (8‐methyl, 4‐hydroxy) showed appropriate binding energy. These moieties containing acyl hydrazone has shown 4‐fold increase in the binding interactions and orientation. According to ADMET and toxicity studies, derivatives 5e, 5m, 5j, and 5l had the potential to be drugs and have proven to be safe when evaluated using seven toxicity models. Further on checking selectivity with the other cholinesterase enzyme, 5l came out to be selective towards AChE whereas 5e & 5j were acting on another target as well. Finally, DFT analysis validated the binding of the derivatives towards AChE and moreover Molecular Dynamic investigation revealed that 5l is the most capable candidate to interact with the target receptor by comparing its molecular orbital energies, molecular electrostatic potential maps, and ligand movement against the co‐crystallized Ligand.

Publisher

Wiley

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