SO <sub>2</sub> hydro-desulfurization to H <sub>2</sub> S production on metal doped nanotubes and nanocages (Mn-Si <sub>60</sub> , Mn-C <sub>60</sub> , Mn-B <sub>30</sub> P <sub>30</sub> , Mn-SiNT(7, 0), Mn-CNT(7, 0) and Mn-BPNT(7, 0))

Abstract The trying to propose the novel catalysts to increase the Claus reactions in order to remove the SO 2 and H 2 S with high performances is very important. Here, the capacities of metal doped nanostructures as catalysts for SO 2 hydro-desulfurization to produce the H 2 S are examined. The possible mechanisms and reactions pathways for SO 2 hydro-desulfurization to H 2 S production on Mn doped nanostructures are investigated. The important species for SO 2 hydro-desulfurization are adsorbed on Mn atoms of nanostructures. The H 2 S molecule is generated on Mn doped nanostructures through following reaction steps: SO 2 * → SO* → S* → SH* → H 2 S. The H 2 S is desorbed from surfaces of metal doped nanostructures, easily. The final performances of used catalysts for SO 2 hydro-desulfurization to H 2 S production are changed in this order: Mn-SiNT(7, 0) &gt; Mn-BPNT(7, 0) &gt; Mn-CNT(7, 0) &gt; Mn-Si 60 &gt; Mn-B 30 P 30 &gt; Mn-C 60 . Finally, the Mn-SiNT(7, 0), Mn-CNT(7, 0) and Mn-BPNT(7, 0) as catalysts have effective ability for SO 2 hydro-desulfurization to H 2 S production from thermodynamic view point.

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Publication Details

Journal
Chemical Product and Process Modeling
Published
2026-02-12
DOI
https://doi.org/10.1515/cppm-2025-0141
Primary Topic
Industrial Gas Emission Control
Type
article
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article

SO 2 hydro-desulfurization to H 2 S production on metal doped nanotubes and nanocages (Mn-Si 60 , Mn-C 60 , Mn-B 30 P 30 , Mn-SiNT(7, 0), Mn-CNT(7, 0) and Mn-BPNT(7, 0))

Mariem Alwan, Hiba Mushtaq, Tiang Hengo, Farag M. A. Altalbawy et al.
Chemical Product and Process Modeling
Industrial Gas Emission Control
article

SO 2 hydro-desulfurization to H 2 S production on metal doped nanotubes and nanocages (Mn-Si 60 , Mn-C 60 , Mn-B 30 P 30 , Mn-SiNT(7, 0), Mn-CNT(7, 0) and Mn-BPNT(7, 0))

Mariem Alwan, Hiba Mushtaq, Tiang Hengo, Farag M. A. Altalbawy, Ahmed Salih Sahib, Nawfal Yousif Jamil, Mahmood Jawad, Aseel Smerat, Zahraa Saad Abdulali, Fadhil F. Sead
article en

Abstract

Abstract The trying to propose the novel catalysts to increase the Claus reactions in order to remove the SO 2 and H 2 S with high performances is very important. Here, the capacities of metal doped nanostructures as catalysts for SO 2 hydro-desulfurization to produce the H 2 S are examined. The possible mechanisms and reactions pathways for SO 2 hydro-desulfurization to H 2 S production on Mn doped nanostructures are investigated. The important species for SO 2 hydro-desulfurization are adsorbed on Mn atoms of nanostructures. The H 2 S molecule is generated on Mn doped nanostructures through following reaction steps: SO 2 * → SO* → S* → SH* → H 2 S. The H 2 S is desorbed from surfaces of metal doped nanostructures, easily. The final performances of used catalysts for SO 2 hydro-desulfurization to H 2 S production are changed in this order: Mn-SiNT(7, 0) &gt; Mn-BPNT(7, 0) &gt; Mn-CNT(7, 0) &gt; Mn-Si 60 &gt; Mn-B 30 P 30 &gt; Mn-C 60 . Finally, the Mn-SiNT(7, 0), Mn-CNT(7, 0) and Mn-BPNT(7, 0) as catalysts have effective ability for SO 2 hydro-desulfurization to H 2 S production from thermodynamic view point.

Chemical Product and Process Modeling
Al-Ahliyya Amman University (JO), University of Baghdad (IQ), Shaoxing University (CN), Ahl Al Bayt University (IQ), National University of Science and Technology (ZW), Iraqi University (IQ), Al-Nisour University College (IQ), University of Kerbala (IQ), University of Tabuk (SA)
Openalex Percentile: Top 55%
Industrial Gas Emission Control
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