Mohamed J. Saadh , Chou-Yi Hsu , Hanan H. Ahmed , Ammar K. Wabdan , Mohamed Mohany , Salim S. Al-Rejaie , Mahmoud Mirzaei , Filipa Mascarenhas-Melo
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A computer-aided study of methimazole adsorption onto a tailored silicon carbide nanocage for assessing a potential drug delivery system
A tailored silicon carbide (SiC) fullerene-like nanocage was used in this work based on the implementation of an iron atom as a dopant system for the adsorption of methimazole (MZOL) drug. Computer-aided density functional theory (DFT) calculations were done to explore the potential use of such a tailored nanocage as a potential drug delivery system regarding the development of a customized drug delivery system. Structural and electronic specifications were evaluated for the optimized systems yielding the formation of MZOL@SiC complexes. Additionally, a significant role of the doped iron atom was found for the formation of MZOL@FeC, MZOL@SiFe, and MZOL@Fe models with a higher favorability for MZOL@SiFe. Reasonable strengths of complexes in both of vacuum and water phases in addition to the electronic specifications indicated a possibility of proposing a potential MZOL drug delivery system for MZOL along with the molecular adsorption and detection features.
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