Full use of factors promoting catalytic performance of chitosan supported manganese porphyrin

Abstract In order to make full use of the impact of internal and external factors on the performance of title catalyst for ethyl benzene oxidation, the key internal influencing factors on the catalytic performance were modulated by coordinating and grafting manganese porphyrin to mesoporous and macr...

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Main Authors: Lin-Qiang Mo, Xian-Fei Huang, Gao-Cai Wang, Guan Huang, Peng Liu
Format: Article
Language:English
Published: Nature Publishing Group 2020-08-01
Series:Scientific Reports
Online Access:https://doi.org/10.1038/s41598-020-70210-y
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spelling doaj-bfdf7ec9a5554f39b7628cb110585f2e2021-08-29T11:21:22ZengNature Publishing GroupScientific Reports2045-23222020-08-0110111410.1038/s41598-020-70210-yFull use of factors promoting catalytic performance of chitosan supported manganese porphyrinLin-Qiang Mo0Xian-Fei Huang1Gao-Cai Wang2Guan Huang3Peng Liu4School of Chemistry and Chemical Engineering, Guangxi UniversitySchool of Electrical Engineering, Guangxi UniversitySchool of Computer and Electronic Information, Guangxi UniversitySchool of Chemistry and Chemical Engineering, Guangxi UniversitySchool of Chemistry and Chemical Engineering, Guangxi UniversityAbstract In order to make full use of the impact of internal and external factors on the performance of title catalyst for ethyl benzene oxidation, the key internal influencing factors on the catalytic performance were modulated by coordinating and grafting manganese porphyrin to mesoporous and macroporous chitosan, and the important external factors (i.e. oxidation reaction conditions) were optimized using Response Surface Methodology. Under the Response Surface Methodology optimized oxidation reaction conditions (176.56 °C, 0.59 MPa, and 0.25 mg amount of manganese porphyrin), the catalyst could be used at least five times. The ethyl benzene conversion, catalyst turnover numbers, and yields reached up to 51.2%, 4.37 × 106 and 36.4% in average, respectively. Compared with the other optimized oxidation reaction conditions, the corresponding values increased 17%, 26% and 53%. Relative to the manganese porphyrin, the catalytic performance and efficiency of the immobilized catalyst had notably increased.https://doi.org/10.1038/s41598-020-70210-y
collection DOAJ
language English
format Article
sources DOAJ
author Lin-Qiang Mo
Xian-Fei Huang
Gao-Cai Wang
Guan Huang
Peng Liu
spellingShingle Lin-Qiang Mo
Xian-Fei Huang
Gao-Cai Wang
Guan Huang
Peng Liu
Full use of factors promoting catalytic performance of chitosan supported manganese porphyrin
Scientific Reports
author_facet Lin-Qiang Mo
Xian-Fei Huang
Gao-Cai Wang
Guan Huang
Peng Liu
author_sort Lin-Qiang Mo
title Full use of factors promoting catalytic performance of chitosan supported manganese porphyrin
title_short Full use of factors promoting catalytic performance of chitosan supported manganese porphyrin
title_full Full use of factors promoting catalytic performance of chitosan supported manganese porphyrin
title_fullStr Full use of factors promoting catalytic performance of chitosan supported manganese porphyrin
title_full_unstemmed Full use of factors promoting catalytic performance of chitosan supported manganese porphyrin
title_sort full use of factors promoting catalytic performance of chitosan supported manganese porphyrin
publisher Nature Publishing Group
series Scientific Reports
issn 2045-2322
publishDate 2020-08-01
description Abstract In order to make full use of the impact of internal and external factors on the performance of title catalyst for ethyl benzene oxidation, the key internal influencing factors on the catalytic performance were modulated by coordinating and grafting manganese porphyrin to mesoporous and macroporous chitosan, and the important external factors (i.e. oxidation reaction conditions) were optimized using Response Surface Methodology. Under the Response Surface Methodology optimized oxidation reaction conditions (176.56 °C, 0.59 MPa, and 0.25 mg amount of manganese porphyrin), the catalyst could be used at least five times. The ethyl benzene conversion, catalyst turnover numbers, and yields reached up to 51.2%, 4.37 × 106 and 36.4% in average, respectively. Compared with the other optimized oxidation reaction conditions, the corresponding values increased 17%, 26% and 53%. Relative to the manganese porphyrin, the catalytic performance and efficiency of the immobilized catalyst had notably increased.
url https://doi.org/10.1038/s41598-020-70210-y
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