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Main Authors: Harismah, Kun, Zohrevand, Bahareh, Zandi, Hasan
Format: Recurso digital
Language:English
Published: Zenodo 2022
Subjects:
Online Access:https://doi.org/10.33263/BRIAC122.16511659
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author Harismah, Kun
Zohrevand, Bahareh
Zandi, Hasan
author_facet Harismah, Kun
Zohrevand, Bahareh
Zandi, Hasan
contents Hydrogen sulfide (H2S) gas adsorption at the surface of iron (Fe)-doped model of coronene was investigated in this work by means of performing density functional theory (DFT) calculations. First, pure coronene and Fe-doped models were examined regarding the electronic and structural features. Next, different starting positions of H2S molecule at the surface were examined during optimization processes yielded two conformational relaxations of H2S-A and H2S-B models. Various features of molecular and atomic scales were evaluated for the optimized modes to describe details of such adsorption processes, in which the results introduced the H2S-A model more proper for the complex formation of H2S and Fe-doped coronene. Interestingly, variations of molecular orbital levels could help diagnose opportunities for detecting the H2S adsorbed model in addition to determining each of the A and B models. Consequently, a Fe-doped coronene surface could be proposed for proper adsorption of H2S gaseous substance with removal and diagnosis purposes. 2021 by the authors.
format Recurso digital
id zenodo_https___doi_org_10_33263_BRIAC122_16511659
institution Zenodo
language eng
publishDate 2022
publisher Zenodo
record_format zenodo
spellingShingle Computational investigating fe-doped coronone surface for adsorption of hydrogen sulfide gaseous substance
Harismah, Kun
Zohrevand, Bahareh
Zandi, Hasan
Coronene
DFT
Fe-doped model
Gas adsorption
Hydrogen sulfide
Surface
Hydrogen sulfide (H2S) gas adsorption at the surface of iron (Fe)-doped model of coronene was investigated in this work by means of performing density functional theory (DFT) calculations. First, pure coronene and Fe-doped models were examined regarding the electronic and structural features. Next, different starting positions of H2S molecule at the surface were examined during optimization processes yielded two conformational relaxations of H2S-A and H2S-B models. Various features of molecular and atomic scales were evaluated for the optimized modes to describe details of such adsorption processes, in which the results introduced the H2S-A model more proper for the complex formation of H2S and Fe-doped coronene. Interestingly, variations of molecular orbital levels could help diagnose opportunities for detecting the H2S adsorbed model in addition to determining each of the A and B models. Consequently, a Fe-doped coronene surface could be proposed for proper adsorption of H2S gaseous substance with removal and diagnosis purposes. 2021 by the authors.
title Computational investigating fe-doped coronone surface for adsorption of hydrogen sulfide gaseous substance
topic Coronene
DFT
Fe-doped model
Gas adsorption
Hydrogen sulfide
Surface
url https://doi.org/10.33263/BRIAC122.16511659