Thermogravimetric Analysis of Carbon Based Catalytic on Decomposition of Methane

Direct decomposition of methane offers two valuable products: hydrogen, and carbon black. However, methane is a stable molecule and its decomposition without catalyst requires temperatures of above 1,000 °C. There have been various transition metal catalysts used for methane decomposition in the pas...

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Main Authors: V. Shilapuram, N. Ozalp
Format: Article
Language:English
Published: AIDIC Servizi S.r.l. 2014-08-01
Series:Chemical Engineering Transactions
Online Access:https://www.cetjournal.it/index.php/cet/article/view/5424
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spelling doaj-c97f973bc76244fd82e7dd876abcd5182021-02-20T21:28:30ZengAIDIC Servizi S.r.l.Chemical Engineering Transactions2283-92162014-08-013910.3303/CET1439123Thermogravimetric Analysis of Carbon Based Catalytic on Decomposition of MethaneV. ShilapuramN. OzalpDirect decomposition of methane offers two valuable products: hydrogen, and carbon black. However, methane is a stable molecule and its decomposition without catalyst requires temperatures of above 1,000 °C. There have been various transition metal catalysts used for methane decomposition in the past. However, using a metal catalyst is a major problem due to metal-carbon separation and catalyst deactivation because of carbon deposition on active sites. Therefore, carbonaceous catalysts have been the most efficient catalysts for direct decomposition of methane. The advantage of using carbon based catalysts is the low cost, the temperature and sulphur resistance, and no requirement of further separation of the catalyst. However, different physical characteristics of the carbon catalyst, including particle size, crystallographic structure, surface area, and the presence of surface groups, have direct effects on the kinetics of the reaction. By controlling such characteristics, methane decomposition can be optimized to achieve a higher production rate of hydrogen. This paper summarizes our extensive work on testing new as well as traditional carbon based catalysts via thermogravimetric analysis. Our results show that ordered mesoporous carbons are the most promising catalysts for methane decomposition.https://www.cetjournal.it/index.php/cet/article/view/5424
collection DOAJ
language English
format Article
sources DOAJ
author V. Shilapuram
N. Ozalp
spellingShingle V. Shilapuram
N. Ozalp
Thermogravimetric Analysis of Carbon Based Catalytic on Decomposition of Methane
Chemical Engineering Transactions
author_facet V. Shilapuram
N. Ozalp
author_sort V. Shilapuram
title Thermogravimetric Analysis of Carbon Based Catalytic on Decomposition of Methane
title_short Thermogravimetric Analysis of Carbon Based Catalytic on Decomposition of Methane
title_full Thermogravimetric Analysis of Carbon Based Catalytic on Decomposition of Methane
title_fullStr Thermogravimetric Analysis of Carbon Based Catalytic on Decomposition of Methane
title_full_unstemmed Thermogravimetric Analysis of Carbon Based Catalytic on Decomposition of Methane
title_sort thermogravimetric analysis of carbon based catalytic on decomposition of methane
publisher AIDIC Servizi S.r.l.
series Chemical Engineering Transactions
issn 2283-9216
publishDate 2014-08-01
description Direct decomposition of methane offers two valuable products: hydrogen, and carbon black. However, methane is a stable molecule and its decomposition without catalyst requires temperatures of above 1,000 °C. There have been various transition metal catalysts used for methane decomposition in the past. However, using a metal catalyst is a major problem due to metal-carbon separation and catalyst deactivation because of carbon deposition on active sites. Therefore, carbonaceous catalysts have been the most efficient catalysts for direct decomposition of methane. The advantage of using carbon based catalysts is the low cost, the temperature and sulphur resistance, and no requirement of further separation of the catalyst. However, different physical characteristics of the carbon catalyst, including particle size, crystallographic structure, surface area, and the presence of surface groups, have direct effects on the kinetics of the reaction. By controlling such characteristics, methane decomposition can be optimized to achieve a higher production rate of hydrogen. This paper summarizes our extensive work on testing new as well as traditional carbon based catalysts via thermogravimetric analysis. Our results show that ordered mesoporous carbons are the most promising catalysts for methane decomposition.
url https://www.cetjournal.it/index.php/cet/article/view/5424
work_keys_str_mv AT vshilapuram thermogravimetricanalysisofcarbonbasedcatalyticondecompositionofmethane
AT nozalp thermogravimetricanalysisofcarbonbasedcatalyticondecompositionofmethane
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