Samira Zeroual, Saad Bouchekioua, Rafik Menacer, Guillaume Hoffmann, Henry Chermette
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引用次数: 0
Abstract
This research work focuses on the theoretical investigation and evaluation of the biological activities of three medicinal plants: black cumin and Artemisia, which have been widely used in the treatment of coronavirus, and Euphorbia Atlantica Coss, belonging to the Euphorbiaceous family. The molecules that are the subject of our work are: thymol, thymoquinone, thujone, and artemisinin, as well as methyl galat (M1) and pholoroacetophenone 4-O-B-D-glucopyranoside (M2); molecules extracted from the plant Euphorbia Atlantica Coss. Structural and orbital studies are carried out on these species, with the aim of establishing a structure-biological activity relationship. The obtained results an energy gap of the order of ~5.5 eV is found for most of the molecules. Potential electrostatic calculations show that Thymol, M1, and M2 are susceptible to electrophilic attack. Thymol has a high polarizability and therefore a good activity, while a good electronic transfer is observed for thujone and artemisinin. Our study showed that black cumin has much more intense absorbance peaks than other plants. AIM analysis identifies critical points at CO and OH bonds, with strong hydrogen bonding in artemisinin. Molecular docking shows promising inhibitory potential of artemisinin. Assessment of the main ADME properties showed that all compounds except M1 and M2 comply with Lipinski's rule, which predicts good oral bioavailability.
本研究主要对三种药用植物——在冠状病毒治疗中广泛应用的黑孜然和青蒿,以及大戟科药用植物大戟的生物活性进行理论研究和评价。我们研究的分子有:百里酚、百里醌、thujone和青蒿素,以及半乳糖甲酯(M1)和邻苯乙酮4- o - b - d -葡萄糖吡喃苷(M2);从植物大戟中提取的分子。对这些物种进行了结构和轨道研究,目的是建立结构-生物活性关系。所得结果表明,大多数分子的能隙约为5.5 eV。电位静电计算表明,百里香酚、M1和M2易受亲电攻击。百里香酚具有较高的极化率,因此具有良好的活性,而图琼和青蒿素具有良好的电子转移。我们的研究表明,黑孜然比其他植物具有更强的吸收峰。AIM分析确定了C - O和O - H键的临界点,在青蒿素中有很强的氢键。分子对接显示青蒿素具有良好的抑制潜力。对ADME主要性质的评价表明,除M1和M2外,其余化合物均符合Lipinski规则,具有良好的口服生物利用度。
期刊介绍:
Since its first formulation quantum chemistry has provided the conceptual and terminological framework necessary to understand atoms, molecules and the condensed matter. Over the past decades synergistic advances in the methodological developments, software and hardware have transformed quantum chemistry in a truly interdisciplinary science that has expanded beyond its traditional core of molecular sciences to fields as diverse as chemistry and catalysis, biophysics, nanotechnology and material science.