Thermal management in polymeric composite materials has become increasingly critical in the air-vehicle industry because of the increasing thermal load in small-scale composite devices extensively used in electronics and aerospace systems. The thermal transport phenomenon in these small-scale heterogeneous systems is essentially controlled by the interface thermal resistance because of the large surface-to-volume ratio. In this review article, several modeling strategies are discussed for different length scales, complemented by our experimental efforts to tailor the thermal transport properties of polymeric composite materials. Progress in the molecular modeling of thermal transport in thermosets is reviewed along with a discussion on the interface thermal resistance between functionalized carbon nanotube and epoxy resin systems. For the thermal transport in fiber-reinforced composites, various micromechanics-based analytical and numerical modeling schemes are reviewed in predicting the transverse thermal conductivity. Numerical schemes used to realize and scale the interface thermal resistance and the finite mean free path of the energy carrier in the mesoscale are discussed in the frame of the lattice BoltzmannâPeierlsâCallaway equation. Finally, guided by modeling, complementary experimental efforts are discussed for exfoliated graphite and vertically aligned nanotubes based composites toward improving their effective thermal conductivity by tailoring interface thermal resistance.
Description
Importance of Interfaces in Governing Thermal Transport in Composite Materials: Modeling and Experimental Perspectives - ACS Applied Materials & Interfaces (ACS Publications)
%0 Journal Article
%1 doi:10.1021/am201496z
%A Roy, Ajit K.
%A Farmer, Barry L.
%A Varshney, Vikas
%A Sihn, Sangwook
%A Lee, Jonghoon
%A Ganguli, Sabyasachi
%D 2012
%J ACS Applied Materials & Interfaces
%K Heat-Transfer Nanocomposites
%N 2
%P 545-563
%R 10.1021/am201496z
%T Importance of Interfaces in Governing Thermal Transport in Composite Materials: Modeling and Experimental Perspectives
%U http://pubs.acs.org/doi/abs/10.1021/am201496z
%V 4
%X Thermal management in polymeric composite materials has become increasingly critical in the air-vehicle industry because of the increasing thermal load in small-scale composite devices extensively used in electronics and aerospace systems. The thermal transport phenomenon in these small-scale heterogeneous systems is essentially controlled by the interface thermal resistance because of the large surface-to-volume ratio. In this review article, several modeling strategies are discussed for different length scales, complemented by our experimental efforts to tailor the thermal transport properties of polymeric composite materials. Progress in the molecular modeling of thermal transport in thermosets is reviewed along with a discussion on the interface thermal resistance between functionalized carbon nanotube and epoxy resin systems. For the thermal transport in fiber-reinforced composites, various micromechanics-based analytical and numerical modeling schemes are reviewed in predicting the transverse thermal conductivity. Numerical schemes used to realize and scale the interface thermal resistance and the finite mean free path of the energy carrier in the mesoscale are discussed in the frame of the lattice BoltzmannâPeierlsâCallaway equation. Finally, guided by modeling, complementary experimental efforts are discussed for exfoliated graphite and vertically aligned nanotubes based composites toward improving their effective thermal conductivity by tailoring interface thermal resistance.
@article{doi:10.1021/am201496z,
abstract = { Thermal management in polymeric composite materials has become increasingly critical in the air-vehicle industry because of the increasing thermal load in small-scale composite devices extensively used in electronics and aerospace systems. The thermal transport phenomenon in these small-scale heterogeneous systems is essentially controlled by the interface thermal resistance because of the large surface-to-volume ratio. In this review article, several modeling strategies are discussed for different length scales, complemented by our experimental efforts to tailor the thermal transport properties of polymeric composite materials. Progress in the molecular modeling of thermal transport in thermosets is reviewed along with a discussion on the interface thermal resistance between functionalized carbon nanotube and epoxy resin systems. For the thermal transport in fiber-reinforced composites, various micromechanics-based analytical and numerical modeling schemes are reviewed in predicting the transverse thermal conductivity. Numerical schemes used to realize and scale the interface thermal resistance and the finite mean free path of the energy carrier in the mesoscale are discussed in the frame of the lattice BoltzmannâPeierlsâCallaway equation. Finally, guided by modeling, complementary experimental efforts are discussed for exfoliated graphite and vertically aligned nanotubes based composites toward improving their effective thermal conductivity by tailoring interface thermal resistance. },
added-at = {2012-04-19T12:30:02.000+0200},
author = {Roy, Ajit K. and Farmer, Barry L. and Varshney, Vikas and Sihn, Sangwook and Lee, Jonghoon and Ganguli, Sabyasachi},
biburl = {https://www.bibsonomy.org/bibtex/2ba083073402018acab1d41a6f51ea2c9/fhrleroy},
description = {Importance of Interfaces in Governing Thermal Transport in Composite Materials: Modeling and Experimental Perspectives - ACS Applied Materials & Interfaces (ACS Publications)},
doi = {10.1021/am201496z},
eprint = {http://pubs.acs.org/doi/pdf/10.1021/am201496z},
interhash = {96d43f50d396bd6b50540e754b585f97},
intrahash = {ba083073402018acab1d41a6f51ea2c9},
journal = {ACS Applied Materials & Interfaces},
keywords = {Heat-Transfer Nanocomposites},
number = 2,
pages = {545-563},
timestamp = {2012-04-19T12:30:02.000+0200},
title = {Importance of Interfaces in Governing Thermal Transport in Composite Materials: Modeling and Experimental Perspectives},
url = {http://pubs.acs.org/doi/abs/10.1021/am201496z},
volume = 4,
year = 2012
}