Friction Theory Model for Thermal Conductivity

Thermal conductivity is an important transport property in nonequilibrium processes, for example, heat transfer between bodies. Compared to viscosity, there are relatively few experimental studies, and a model of engineering accuracy is needed to calculate the thermal conductivity in the absence of...

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Published inJournal of chemical and engineering data Vol. 66; no. 11; pp. 4215 - 4227
Main Authors Quiñones-Cisneros, Sergio E, Pollak, Stefan, Schmidt, Kurt A. G
Format Journal Article
LanguageEnglish
Published American Chemical Society 11.11.2021
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Abstract Thermal conductivity is an important transport property in nonequilibrium processes, for example, heat transfer between bodies. Compared to viscosity, there are relatively few experimental studies, and a model of engineering accuracy is needed to calculate the thermal conductivity in the absence of these experiments. This model also needs to apply to mixtures at conditions relevant to industrial processes. Numerous thermal conductivity correlations are available in the literature. However, most of them are for specific single fluids and cannot be extended to the prediction of mixture thermal conductivity. A new approach of a general nature, based on nonequilibrium properties and a common cubic equation of state, is presented in this investigation. This new approach delivers accurate and straightforward wide-range correlations for pure compounds and good predictions of mixture thermal conductivity (based on the studied test cases).
AbstractList Thermal conductivity is an important transport property in nonequilibrium processes, for example, heat transfer between bodies. Compared to viscosity, there are relatively few experimental studies, and a model of engineering accuracy is needed to calculate the thermal conductivity in the absence of these experiments. This model also needs to apply to mixtures at conditions relevant to industrial processes. Numerous thermal conductivity correlations are available in the literature. However, most of them are for specific single fluids and cannot be extended to the prediction of mixture thermal conductivity. A new approach of a general nature, based on nonequilibrium properties and a common cubic equation of state, is presented in this investigation. This new approach delivers accurate and straightforward wide-range correlations for pure compounds and good predictions of mixture thermal conductivity (based on the studied test cases).
Author Quiñones-Cisneros, Sergio E
Pollak, Stefan
Schmidt, Kurt A. G
AuthorAffiliation Department of Chemical and Materials Engineering
Geo Process Engineering, Institute for Thermo- and Fluid Dynamics
AuthorAffiliation_xml – name: Department of Chemical and Materials Engineering
– name: Geo Process Engineering, Institute for Thermo- and Fluid Dynamics
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  givenname: Sergio E
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  email: seqc@fvt.ruhr-uni-bochum.de
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  givenname: Stefan
  surname: Pollak
  fullname: Pollak, Stefan
  organization: Geo Process Engineering, Institute for Thermo- and Fluid Dynamics
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  givenname: Kurt A. G
  orcidid: 0000-0001-9390-9122
  surname: Schmidt
  fullname: Schmidt, Kurt A. G
  organization: Department of Chemical and Materials Engineering
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