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Hopkins, Patrick E.; Norris, Pamela M.; Beechem, Thomas Edwin III; Smoyer, Justin L.; Duda, John C.
Sandia National Laboratories (United States). Funding organisation: US Department of Energy (United States)2010
Sandia National Laboratories (United States). Funding organisation: US Department of Energy (United States)2010
AbstractAbstract
[en] This model predicts thermal boundary conductance at interfaces where one material comprising the junction is characterized by high elastic anisotropy (i.e, graphite). The thermal properties of graphite are determined through a simplified vibrational model, where the bulk structure is treated as an linear assembly of two-dimensional systems. This model is validated at temperatures above cryogenic through comparison to experimentally determined values of specific heat. Elastic processes are accounted for through traditional diffuse transport theory. Inelastic contributions due to multi-phonon processes are also addressed and quantified.
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1 Apr 2010; 1 p; Materials Research Society Spring Meeting 2010; San Francisco, CA (United States); 5-9 Apr 2010; AC04-94AL85000; Available from Materials Research Society, 506 Keystone Drive, Warrendale, PA 15086-7537 (US)
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