2013•Journal of Materials Science ResearchOpen access

In-Situ Fabrication of Expanded Graphite-Carbon Nanotube Nanocomposite with Enhanced Thermal Conductivity

Jun Cao, Chuanling Men, Hong‐Yuan Chen, Geng Fu Xu, Yongyi Zhang, Qingwen Li

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Abstract

The three-dimensional (3D) expanded graphite-carbon nanotube (EG-CNT) nanocomposite was prepared by in situ growing CNTs between graphite layers in thermally expanded graphite. The morphology and microstructure of the nanocomoposite were characterized by SEM, TEM, Raman and XRD analyses, respectively. The results show that intimately contacted EG-CNT interface has been formed within the multilayered composite architecture. Furthermore, paraffin was used as a filler to occupy the free spaces of the EG-CNT nanocomposite for thermal application. The as-obtained composite structure is inclined to conduct heat isotropically and shows a thermal conductivity higher than 10 W/m·K at a paraffin loading of 49 wt.%, which indicates that EG-CNT nanocomposite could be promising candidates for thermal management in electronic package.

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The three-dimensional (3D) expanded graphite-carbon nanotube (EG-CNT) nanocomposite was prepared by in situ growing CNTs between graphite layers in thermally expanded graphite. The morphology and microstructure of the nanocomoposite were characterized by SEM, TEM, Raman and XRD analyses, respectively. The results show that intimately contacted EG-CNT interface has been formed within the multilayered composite architecture. Furthermore, paraffin was used as a filler to occupy the free spaces of the EG-CNT nanocomposite for thermal application. The as-obtained composite structure is inclined to conduct heat isotropically and shows a thermal conductivity higher than 10 W/m·K at a paraffin loading of 49 wt.%, which indicates that EG-CNT nanocomposite could be promising candidates for thermal management in electronic package.

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Available abstract

The three-dimensional (3D) expanded graphite-carbon nanotube (EG-CNT) nanocomposite was prepared by in situ growing CNTs between graphite layers in thermally expanded graphite. The morphology and microstructure of the nanocomoposite were characterized by SEM, TEM, Raman and XRD analyses, respectively. The results show that intimately contacted EG-CNT interface has been formed within the multilayered composite architecture. Furthermore, paraffin was used as a filler to occupy the free spaces of the EG-CNT nanocomposite for thermal application. The as-obtained composite structure is inclined to conduct heat isotropically and shows a thermal conductivity higher than 10 W/m·K at a paraffin loading of 49 wt.%, which indicates that EG-CNT nanocomposite could be promising candidates for thermal management in electronic package.

Key concepts: Materials science, Graphite, Nanocomposite, Carbon nanotube, Composite material, Composite number, Thermal conductivity, Microstructure

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