Correlating Disorder Microstructure and Magnetotransport of Carbon Nanowalls

The carbon nanowalls (CNWs) grown by Plasma-Enhanced CVD reveal differences in the magnetotransport properties depending on the synthesis parameters. In this paper, we report the influence of the deposition temperature, which produces variations of the disorder microstructure of the CNWs. Relative l...
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Autor*in:	Mijaela Acosta Gentoiu [verfasserIn] Rafael García Gutiérrez [verfasserIn] José Joaquín Alvarado Pulido [verfasserIn] Javier Montaño Peraza [verfasserIn] Marius Volmer [verfasserIn] Sorin Vizireanu [verfasserIn] Stefan Antohe [verfasserIn] Gheorghe Dinescu [verfasserIn] Ricardo Alberto Rodriguez-Carvajal [verfasserIn]

Format:	E-Artikel
Sprache:	Englisch

Erschienen:	2023

Schlagwörter:	magnetotransport graphene nanowalls disorder

Übergeordnetes Werk:	In: Applied Sciences - MDPI AG, 2012, 13(2023), 4, p 2476
Übergeordnetes Werk:	volume:13 ; year:2023 ; number:4, p 2476

Links:	Link aufrufen Link aufrufen Link aufrufen Journal toc

DOI / URN:	10.3390/app13042476

Katalog-ID:	DOAJ081018983

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callnumber-first	T - Technology
author	Mijaela Acosta Gentoiu
spellingShingle	Mijaela Acosta Gentoiu misc TA1-2040 misc QH301-705.5 misc QC1-999 misc QD1-999 misc magnetotransport misc graphene misc nanowalls misc disorder misc Technology misc T misc Engineering (General). Civil engineering (General) misc Biology (General) misc Physics misc Chemistry Correlating Disorder Microstructure and Magnetotransport of Carbon Nanowalls
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title	Correlating Disorder Microstructure and Magnetotransport of Carbon Nanowalls
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title_full	Correlating Disorder Microstructure and Magnetotransport of Carbon Nanowalls
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title_sort	correlating disorder microstructure and magnetotransport of carbon nanowalls
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title_auth	Correlating Disorder Microstructure and Magnetotransport of Carbon Nanowalls
abstract	The carbon nanowalls (CNWs) grown by Plasma-Enhanced CVD reveal differences in the magnetotransport properties depending on the synthesis parameters. In this paper, we report the influence of the deposition temperature, which produces variations of the disorder microstructure of the CNWs. Relative low disorder leads to the weak localization with the transition to weak antilocalization. Higher disorder generates positive Hopping mechanism in low field with a crossover to a diffusion transport by graphene nanocrystallites. The samples reveal a similitude of the isoline density of the MR at a low temperature (<50 K), explained in the context of the magnetization. This effect is independent of the number of defects. We can achieve a desirable amount of control over the MT properties changing the CNWs’ microstructure.
abstractGer	The carbon nanowalls (CNWs) grown by Plasma-Enhanced CVD reveal differences in the magnetotransport properties depending on the synthesis parameters. In this paper, we report the influence of the deposition temperature, which produces variations of the disorder microstructure of the CNWs. Relative low disorder leads to the weak localization with the transition to weak antilocalization. Higher disorder generates positive Hopping mechanism in low field with a crossover to a diffusion transport by graphene nanocrystallites. The samples reveal a similitude of the isoline density of the MR at a low temperature (<50 K), explained in the context of the magnetization. This effect is independent of the number of defects. We can achieve a desirable amount of control over the MT properties changing the CNWs’ microstructure.
abstract_unstemmed	The carbon nanowalls (CNWs) grown by Plasma-Enhanced CVD reveal differences in the magnetotransport properties depending on the synthesis parameters. In this paper, we report the influence of the deposition temperature, which produces variations of the disorder microstructure of the CNWs. Relative low disorder leads to the weak localization with the transition to weak antilocalization. Higher disorder generates positive Hopping mechanism in low field with a crossover to a diffusion transport by graphene nanocrystallites. The samples reveal a similitude of the isoline density of the MR at a low temperature (<50 K), explained in the context of the magnetization. This effect is independent of the number of defects. We can achieve a desirable amount of control over the MT properties changing the CNWs’ microstructure.
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title_short	Correlating Disorder Microstructure and Magnetotransport of Carbon Nanowalls
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Correlating Disorder Microstructure and Magnetotransport of Carbon Nanowalls

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