Distribution model of Iron (Fe) on Fe/Graphene Nano Sheets

In this paper, we report about the distribution model of Iron (Fe) atoms on Graphene Nano Sheets (GNS). The purpose of this research is to evaluate the performance of Fe/GNS in terms of the distribution of Fe atoms on the graphene surface. GNS and Fe/GNS were prepared with modified Hummer’s and im...

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Main Authors: Siburian, Rikson, Goei, Ronn, Manurung, Hana, Aritonang, Sri Pratiwi, Simanjuntak, Crystina, Hutagalung, Fajar, Anshori, Isa, Alias, Yatimah, Paiman, Suriati, Affi, Jon, Tok, Alfred Iing Yoong
Format: Article
Published: Elsevier 2023
Online Access:http://psasir.upm.edu.my/id/eprint/107371/
https://linkinghub.elsevier.com/retrieve/pii/S0272884223016905
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spelling my.upm.eprints.1073712024-10-15T06:41:31Z http://psasir.upm.edu.my/id/eprint/107371/ Distribution model of Iron (Fe) on Fe/Graphene Nano Sheets Siburian, Rikson Goei, Ronn Manurung, Hana Aritonang, Sri Pratiwi Simanjuntak, Crystina Hutagalung, Fajar Anshori, Isa Alias, Yatimah Paiman, Suriati Affi, Jon Tok, Alfred Iing Yoong In this paper, we report about the distribution model of Iron (Fe) atoms on Graphene Nano Sheets (GNS). The purpose of this research is to evaluate the performance of Fe/GNS in terms of the distribution of Fe atoms on the graphene surface. GNS and Fe/GNS were prepared with modified Hummer’s and impregnation methods, respectively. We found that the morphology of graphite is different compare to GNS where GNS has thin layers and no stacking sheets (Scanning Electron Microscope (SEM) data) and it contains majority Carbon (C) element (more than 90 wt%) (EDX data). The X-Ray Diffraction (XRD) data of GNS shows the appearance weak and broad peak on 2θ = 26.6o indicating GNS was formed, and the sharp peaks on 2θ = 43.84o prove that Fe atoms are well deposited on GNS (XRD data). Both SEM and XRD data prove GNS produced and Fe deposited on GNS. Further, we propose the distribution model of Fe atoms on GNS surfaces based on three steps. The first step is the Fe precursor react with GNS to produce Fe ions. The second step is Fe ions reduce while being deposited on GNS surfaces, generating Fe clusters. Finally, Fe clusters migrate on the surfaces of GNS to form Fe particles. The smallest Fe crystal size in Fe/GNS is at 3.81% Fe (1.5009 nm) and distributed into GNS. Based on those data, GNS was found to affect the properties of Fe metal. Elsevier 2023-09 Article PeerReviewed Siburian, Rikson and Goei, Ronn and Manurung, Hana and Aritonang, Sri Pratiwi and Simanjuntak, Crystina and Hutagalung, Fajar and Anshori, Isa and Alias, Yatimah and Paiman, Suriati and Affi, Jon and Tok, Alfred Iing Yoong (2023) Distribution model of Iron (Fe) on Fe/Graphene Nano Sheets. Ceramics International, 49 (17, part.B). 28571- 28579. ISSN 0272-8842; ESSN: 1873-3956 https://linkinghub.elsevier.com/retrieve/pii/S0272884223016905 10.1016/j.ceramint.2023.06.110
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content_provider Universiti Putra Malaysia
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description In this paper, we report about the distribution model of Iron (Fe) atoms on Graphene Nano Sheets (GNS). The purpose of this research is to evaluate the performance of Fe/GNS in terms of the distribution of Fe atoms on the graphene surface. GNS and Fe/GNS were prepared with modified Hummer’s and impregnation methods, respectively. We found that the morphology of graphite is different compare to GNS where GNS has thin layers and no stacking sheets (Scanning Electron Microscope (SEM) data) and it contains majority Carbon (C) element (more than 90 wt%) (EDX data). The X-Ray Diffraction (XRD) data of GNS shows the appearance weak and broad peak on 2θ = 26.6o indicating GNS was formed, and the sharp peaks on 2θ = 43.84o prove that Fe atoms are well deposited on GNS (XRD data). Both SEM and XRD data prove GNS produced and Fe deposited on GNS. Further, we propose the distribution model of Fe atoms on GNS surfaces based on three steps. The first step is the Fe precursor react with GNS to produce Fe ions. The second step is Fe ions reduce while being deposited on GNS surfaces, generating Fe clusters. Finally, Fe clusters migrate on the surfaces of GNS to form Fe particles. The smallest Fe crystal size in Fe/GNS is at 3.81% Fe (1.5009 nm) and distributed into GNS. Based on those data, GNS was found to affect the properties of Fe metal.
format Article
author Siburian, Rikson
Goei, Ronn
Manurung, Hana
Aritonang, Sri Pratiwi
Simanjuntak, Crystina
Hutagalung, Fajar
Anshori, Isa
Alias, Yatimah
Paiman, Suriati
Affi, Jon
Tok, Alfred Iing Yoong
spellingShingle Siburian, Rikson
Goei, Ronn
Manurung, Hana
Aritonang, Sri Pratiwi
Simanjuntak, Crystina
Hutagalung, Fajar
Anshori, Isa
Alias, Yatimah
Paiman, Suriati
Affi, Jon
Tok, Alfred Iing Yoong
Distribution model of Iron (Fe) on Fe/Graphene Nano Sheets
author_facet Siburian, Rikson
Goei, Ronn
Manurung, Hana
Aritonang, Sri Pratiwi
Simanjuntak, Crystina
Hutagalung, Fajar
Anshori, Isa
Alias, Yatimah
Paiman, Suriati
Affi, Jon
Tok, Alfred Iing Yoong
author_sort Siburian, Rikson
title Distribution model of Iron (Fe) on Fe/Graphene Nano Sheets
title_short Distribution model of Iron (Fe) on Fe/Graphene Nano Sheets
title_full Distribution model of Iron (Fe) on Fe/Graphene Nano Sheets
title_fullStr Distribution model of Iron (Fe) on Fe/Graphene Nano Sheets
title_full_unstemmed Distribution model of Iron (Fe) on Fe/Graphene Nano Sheets
title_sort distribution model of iron (fe) on fe/graphene nano sheets
publisher Elsevier
publishDate 2023
url http://psasir.upm.edu.my/id/eprint/107371/
https://linkinghub.elsevier.com/retrieve/pii/S0272884223016905
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score 13.211869