Amb motiu del tancament d'estiu, la validació de documents es reprendrà a partir del 28 d'agost de 2026. Disculpeu les molèsties.
Con motivo del cierre de verano, la validación de documentos se reanudará a partir del 28 de agosto de 2026. Disculpad las molestias
Due to the summer closure, document validation will resume starting August 28, 2026. We apologize for any inconvenience.

Document type

Article

Version

Published version

Publication date

Publication license

cc-by (c) Ali Channar, Pervaiz et al., 2017
Please use this identifier to cite or link to this item: https://hdl.handle.net/2445/158279

Sulfonamide linked ciprofloxacin derivatives as a novel class of inhibitors of jack bean urease. Synthesis of Kinetic mechanism and Bioinformatics

Journal Title

Director/Tutor

Journal ISSN

Volume Title

Abstract

Sulfonamide derivatives serve as an important building blocks in the drug design discovery and development (4D) process. Ciprofloxacin-, sulfadiazine- and amantadine-based sulfonamides were synthesized as potent inhibitors of jack bean urease and free radical scavengers. Molecular diversity was explored and electronic factors were also examined. All 24 synthesized compounds exhibited excellent potential against urease enzyme. Compound 3e (IC50 = 0.081 ± 0.003 µM), 6a (IC50 = 0.0022 ± 0.0002 µM), 9e (IC50 = 0.0250 ± 0.0007 µM) and 12d (IC50 = 0.0266 ± 0.0021 µM) were found to be the lead compounds compared to standard (thiourea, IC50 = 17.814 ± 0.096 µM). Molecular docking studies were performed to delineate the binding affinity of the molecules and a kinetic mechanism of enzyme inhibition was propounded. Compounds 3e, 6a and 12d exhibited a mixed type of inhibition, while derivative 9e revealed a non-competitive mode of inhibition. Compounds 12a, 12b, 12d, 12e and 12f showed excellent radical scavenging potency in comparison to the reference drug vitamin C.

Citation

Citation

ALI CHANNAR, Pervaiz, et al. Sulfonamide linked ciprofloxacin derivatives as a novel class of inhibitors of jack bean urease. Synthesis of Kinetic mechanism and Bioinformatics. Molecules. 2017. Vol. 22, num. 8, pags. 1352. ISSN 1420-3049. [consulted: 9 of August of 2026]. Available at: https://hdl.handle.net/2445/158279

Export metadata

JSON - METS

Share record