Fullerene-intercalated Graphene Nano-containers — Mechanism of Argon Adsorption and High-pressure CH4 and CO2 Storage Capacities

Using GCMC simulations, we discuss the mechanism of argon adsorption onto intercalated graphene nano-containers (NanoBuds). The mechanism is related to the shapes of the high-resolution aS-plots. Next, we have tested the applicability of these materials to the storage of methane and carbon dioxide....

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Main Authors: Terzyk, A., Furmaniak, S., Gauden, P., Kowalczyk, Poitr
Format: Journal Article
Published: Multi-Science Publishing Co. Ltd. 2009
Subjects:
Online Access:http://hdl.handle.net/20.500.11937/17289
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author Terzyk, A.
Furmaniak, S.
Gauden, P.
Kowalczyk, Poitr
author_facet Terzyk, A.
Furmaniak, S.
Gauden, P.
Kowalczyk, Poitr
author_sort Terzyk, A.
building Curtin Institutional Repository
collection Online Access
description Using GCMC simulations, we discuss the mechanism of argon adsorption onto intercalated graphene nano-containers (NanoBuds). The mechanism is related to the shapes of the high-resolution aS-plots. Next, we have tested the applicability of these materials to the storage of methane and carbon dioxide. We show that intercalation improves the storage, especially in the range of low pressures where the effect of volume does not dominate. The results obtained may be of interest in the design of new carbon materials.
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format Journal Article
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institution Curtin University Malaysia
institution_category Local University
last_indexed 2025-11-14T07:20:44Z
publishDate 2009
publisher Multi-Science Publishing Co. Ltd.
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spelling curtin-20.500.11937-172892017-09-13T15:42:02Z Fullerene-intercalated Graphene Nano-containers — Mechanism of Argon Adsorption and High-pressure CH4 and CO2 Storage Capacities Terzyk, A. Furmaniak, S. Gauden, P. Kowalczyk, Poitr Fullerene-intercalated Graphene Nano-containers — Mechanism of Argon - Adsorption and High-pressure CH4 and CO2 Storage Capacities Using GCMC simulations, we discuss the mechanism of argon adsorption onto intercalated graphene nano-containers (NanoBuds). The mechanism is related to the shapes of the high-resolution aS-plots. Next, we have tested the applicability of these materials to the storage of methane and carbon dioxide. We show that intercalation improves the storage, especially in the range of low pressures where the effect of volume does not dominate. The results obtained may be of interest in the design of new carbon materials. 2009 Journal Article http://hdl.handle.net/20.500.11937/17289 10.1260/026361709789868929 Multi-Science Publishing Co. Ltd. unknown
spellingShingle Fullerene-intercalated Graphene Nano-containers — Mechanism of Argon - Adsorption and High-pressure CH4 and CO2 Storage Capacities
Terzyk, A.
Furmaniak, S.
Gauden, P.
Kowalczyk, Poitr
Fullerene-intercalated Graphene Nano-containers — Mechanism of Argon Adsorption and High-pressure CH4 and CO2 Storage Capacities
title Fullerene-intercalated Graphene Nano-containers — Mechanism of Argon Adsorption and High-pressure CH4 and CO2 Storage Capacities
title_full Fullerene-intercalated Graphene Nano-containers — Mechanism of Argon Adsorption and High-pressure CH4 and CO2 Storage Capacities
title_fullStr Fullerene-intercalated Graphene Nano-containers — Mechanism of Argon Adsorption and High-pressure CH4 and CO2 Storage Capacities
title_full_unstemmed Fullerene-intercalated Graphene Nano-containers — Mechanism of Argon Adsorption and High-pressure CH4 and CO2 Storage Capacities
title_short Fullerene-intercalated Graphene Nano-containers — Mechanism of Argon Adsorption and High-pressure CH4 and CO2 Storage Capacities
title_sort fullerene-intercalated graphene nano-containers — mechanism of argon adsorption and high-pressure ch4 and co2 storage capacities
topic Fullerene-intercalated Graphene Nano-containers — Mechanism of Argon - Adsorption and High-pressure CH4 and CO2 Storage Capacities
url http://hdl.handle.net/20.500.11937/17289