| Journal of Taibah University for Science | 卷:16 |
| Drug delivery of carvedilol (cardiovascular drug) using phosphorene as a drug carrier: a DFT study | |
| Z. A. Alrowaili1  Sultan Alomairy2  Sidra Nazir3  M. S. Al-Buriahi4  Javed Iqbal5  Qaba Qusain Afzal5  Javeria Rafique5  Mehvish Perveen5  Mohammed Salim Akhter6  | |
| [1] College of Science, Jouf University; | |
| [2] College of Science, Taif University; | |
| [3] Faisalabad Institute of Cardiology; | |
| [4] Sakarya University; | |
| [5] University of Agriculture; | |
| [6] University of Bahrain; | |
| 关键词: carvedilol; drug delivery; density functional theory; phosphorene; cvds; | |
| DOI : 10.1080/16583655.2021.2021789 | |
| 来源: DOAJ | |
【 摘 要 】
2D nanomaterial phosphorene is a chemistically stable, biocompatible, and biodegradable drug delivery platform. This study investigates the drug loading efficiency of phosphorene for the cardiovascular drug carvedilol using density-functional theory (DFT). In the gas phase, carvedilol prefers to interact with phosphorene via P-H bonding with an adsorption energy of 0.59 eV (0.45 eV in water). The complex HOMO–LUMO energy gap has been calculated in gas and solvent media to assess phosphorene-carvedilol reactivity. As compared to free carvedilol and phosphorene, the phosphorene-carvedilol complex has increased solubility. The NCI analysis visualises non-covalent interactions within complexes. The low Van der Waals interactions between carvedilol and phosphorene allow for easy drug offloading. The phosphorene-carvedilol complex is more soluble in water than previously thought. Phosphorene's electron density changes significantly after complex formation, as revealed by charge decomposition plots and electron-localization function plots. PET (photo-induced electron transfer) analysis explains quenching.
【 授权许可】
Unknown