• Title of article

    A DFT Study of Selenium-Cyclic Peptide Anticancer Nanocarrier

  • Author/Authors

    Moghimi, Sara Department of Chemistry - Mashhad Branch - Islamic Azad University - Mashhad, Iran , Morsali, Ali Department of Chemistry - Mashhad Branch - Islamic Azad University - Mashhad, Iran - Research Center for Animal Development Applied Biology - Mashhad Branch - Islamic Azad University - Mashhad 917568, Iran , Heravi, Mohammad M Department of Chemistry - Mashhad Branch - Islamic Azad University - Mashhad, Iran , Beyramabadi, Ali Department of Chemistry - Mashhad Branch - Islamic Azad University - Mashhad, Iran - Research Center for Animal Development Applied Biology - Mashhad Branch - Islamic Azad University - Mashhad 917568, Iran

  • Pages
    12
  • From page
    120
  • To page
    131
  • Abstract
    Using Se8 selenium and cyclic peptides nanoparticles (SeCPNP), six configurations for the adsorption of the 5-fluorouracil (FU) anticancer drug on SeCPNP have been examined (SeCPNP/FU1-6). Binding energies, solvation energies and quantum molecular descriptors such as electrophilicity (ω) and global hardness (η) in the aqueous solution and gas phase were studied at the density functional level of M06-2X. The most stable structure by binding energy calculations was determined. The values obtained from solvation energies indicate that SeCPNPs can increase the solubility of FU, which is a key factor in drug delivery. According to quantum molecular descriptors, the reactivity of cyclic peptide (CP) and FU drug in all structures (SeCPNP/FU 1-6) increases. AIM calculations for all structures show that Se-A interactions (A = O, H, N, F and C) and intermolecular hydrogen bonding play an important role for this drug delivery system. In structures where FU is parallel to SeCPNP and undergoes interactions concurrently with Se8 and CP, it is more stable than structures in which the drug undergoes interactions only with Se8 and CP.
  • Keywords
    5-Fluorouracil , Anticancer , AIM analysis , DFT , Selenium cyclic peptide nanoparticles
  • Journal title
    Inorganic Chemistry Research
  • Serial Year
    2021
  • Record number

    2669055