Department of Chemistry, SRMPP Govt. First Grade College, Huvinahadagali 583219, India.
Department of Chemistry, SRMPP Govt. First Grade College, Huvinahadagali 583219, India.
Bioorg Chem. 2020 Dec;105:104419. doi: 10.1016/j.bioorg.2020.104419. Epub 2020 Oct 22.
Quinoline derivatives have been reported to possess enticing pharmacological properties. In particular, quinoline-chalcones are identified as promising scaffolds for drug discovery. For a long, the quinoline analogs have been in clinical use for various medical conditions such as cancer inhibitory activity, antibacterial and antifungal, anti-plasmodial, DNA damage inhibitory activity, etc. The number of causalities recorded because of the above-mentioned clinical states is significantly large. Though drug design and discovery is a continuous process all over the world, issues like drug-resistance, low metabolic stability, and long-range side effects are potential hindrances for the continuous use of present pharmacological drugs. In this review work, we focused on the recent drug discovery based on quinoline-chalcones. The work emphasizes the potency of a wide range of quinoline chalcone analogs towards the inhibition of infections caused by the various pathogenic microbes such as bacteria, fungi, plasmodium. Alongside, the quinoline chalcones possessing DNA cleavage properties and cancer cell growth inhibitory properties are also discussed. More importantly, the strongest pharmacological molecules are identified based on the inhibitory properties, cytotoxic values, and pharmacokinetics of synthesized derivatives. Additionally, a structure-activity relationship is established amongst the evaluated molecules. Supplemented by the mechanism of action in few pharmacological activities, the potent activity is also proved by the favorable binding interactions in molecular simulation studies.
喹啉衍生物具有诱人的药理学性质。特别是,喹啉查耳酮被认为是药物发现的有前途的支架。长期以来,喹啉类似物一直被用于各种医学病症,如抗癌活性、抗菌和抗真菌、抗疟原虫、DNA 损伤抑制活性等。由于上述临床状况而记录的死亡人数非常多。尽管药物设计和发现是全世界的一个持续过程,但耐药性、低代谢稳定性和长期副作用等问题可能会阻碍现有药理药物的持续使用。在这项综述工作中,我们重点关注了基于喹啉查耳酮的最新药物发现。这项工作强调了广泛的喹啉查耳酮类似物对各种致病微生物(如细菌、真菌、疟原虫)引起的感染的抑制作用。此外,还讨论了具有 DNA 切割性质和癌细胞生长抑制性质的喹啉查耳酮。更重要的是,根据合成衍生物的抑制特性、细胞毒性值和药代动力学,确定了最强的药理学分子。此外,还在评估的分子之间建立了构效关系。通过一些药理活性的作用机制,分子模拟研究中的有利结合相互作用也证明了其强大的活性。