2010
DOI: 10.1098/rspa.2009.0523
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Green–Naghdi fluid with non-thermal equilibrium effects

Abstract: A. E. Green, FRS and P. M. Naghdi developed a new theory of continuum mechanics based on an entropy identity rather than an entropy inequality. In particular, within the framework of this theory, they developed a new set of equations to describe viscous flow. The new theory additionally involves vorticity and spin of vorticity. We here develop the theory of Green and Naghdi to be applicable to thermal convection in a fluid in which is suspended a collection of minute metallic-like particles. Thus, we develop a… Show more

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Cited by 27 publications
(28 citation statements)
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“…The present article is concerned with what happens when the Newtonian fluid is replaced by a power-law fluid. (For completeness it should be noted that Straughan (2010) has developed the theory of Green and Naghdi to describe the convection of nanofluids. The theory involves vorticity and spin of vorticity.…”
Section: Introduction and Discussionmentioning
confidence: 99%
“…The present article is concerned with what happens when the Newtonian fluid is replaced by a power-law fluid. (For completeness it should be noted that Straughan (2010) has developed the theory of Green and Naghdi to describe the convection of nanofluids. The theory involves vorticity and spin of vorticity.…”
Section: Introduction and Discussionmentioning
confidence: 99%
“…For example, there are applications in tube refrigerators in space, [19]; in nanofluid flows, 6 Animal fur is a good example of a high porosity material, as seen in this cat. [320,420,425], chapter 8; in fuel cells [102]; in resin flow, important in processing composite materials, [108]; in nuclear reactor maintenance, [137]; in heat exchangers, [107,269]; in microwave ablation of the liver, [208]; in biological tissue analysis, [493]; in flows in microchannels, [215]; in flow and heat transfer in porous metallic foams, [189,240,241,269]; in thermovibrational filtration, [388,389], in textile transport, [486]; and in convection in stellar atmospheres, cf. [425], chapter 8, [426].…”
Section: Applications Examplesmentioning
confidence: 99%
“…In particular, with modern heat transfer devices being increasingly employed on a microscale there is much need to understand penetrative and resonant convection on a nanoscale, cf. [18,118,133,300,303,402,420,425,428,433]. MEMS (microelectro-mechanical-systems) will play an important part in future heat transfer technology, cf.…”
Section: Resonance In Thermal Convectionmentioning
confidence: 99%
See 1 more Smart Citation
“…These include double diffusive convection [13][14][15], ferroconvection [16,17], convection in complex fluids [18,19] and non-uniformly heated fluids [20] and thermovibrational convection [21]. Recent articles have also discussed this situation in vertical porous media [22,23].…”
Section: Introductionmentioning
confidence: 99%