2019
DOI: 10.1088/1361-6544/ab3614
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On a class of compressible viscoelastic rate-type fluids with stress-diffusion

Abstract: We develop a mathematical theory for a class of compressible viscoelastic rate-type fluids with stress diffusion. Our approach is based on the concepts used in the nowadays standard theory of compressible Newtonian fluids as renormalization, effective viscous flux identity, compensated compactness. The presence of the extra stress, however, requires substantial modification of these techniques, in particular, a new version of the effective viscous flux identity is derived. With help of these tools, we show the… Show more

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Cited by 16 publications
(30 citation statements)
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“…While the presence of the centre-of-mass diffusion term is motivated by physical considerations, see for example El-Kareh and Leal [52], Bhave et al [53], Schieber [54] and Degond and Liu [32], it turns out that its presence can be gainfully exploited in the mathematical analysis of the corresponding governing equations in the purely mechanical setting as well, see especially Barrett and Süli [31,33,55,56,57] or Feireisl et al [34]. (See also Bulíček et al [58], Bulíček et al [59] and Bathory et al [60] in the context of macroscopic models with a stress diffusion term.) One might hope that once thermodynamically consistent models for the full thermo-mechanical coupling are derived, similar rigorous mathematical results might also be obtained for the corresponding full system of governing equations, that is including the governing equation for the temperature.…”
Section: Discussionmentioning
confidence: 99%
“…While the presence of the centre-of-mass diffusion term is motivated by physical considerations, see for example El-Kareh and Leal [52], Bhave et al [53], Schieber [54] and Degond and Liu [32], it turns out that its presence can be gainfully exploited in the mathematical analysis of the corresponding governing equations in the purely mechanical setting as well, see especially Barrett and Süli [31,33,55,56,57] or Feireisl et al [34]. (See also Bulíček et al [58], Bulíček et al [59] and Bathory et al [60] in the context of macroscopic models with a stress diffusion term.) One might hope that once thermodynamically consistent models for the full thermo-mechanical coupling are derived, similar rigorous mathematical results might also be obtained for the corresponding full system of governing equations, that is including the governing equation for the temperature.…”
Section: Discussionmentioning
confidence: 99%
“…This assumption, however, turns (1.11) into a much simpler scalar equation. Moreover, note that if B = bI, then the equations (1.10) and (1.11) decouple (which is not the case in [14] and [10] since there the considered constitutive relation for T is more complicated than here). Furthermore, in [29], the authors consider yet another class of Peterlin viscoelastic models with stress di usion and prove existence of a global twoor three-dimensional solution.…”
Section: The De Nition Of a Weak Solution And Its Existencementioning
confidence: 91%
“…There are also global large data existence results in three dimensions for slightly di erent classes of di usive rate-type viscoelastic models, but under some simplifying assumptions. For example, in [14] and [10], the authors consider the case where B = bI. This assumption, however, turns (1.11) into a much simpler scalar equation.…”
Section: The De Nition Of a Weak Solution And Its Existencementioning
confidence: 99%
“…, and π 0 ∈ H 1 (Ω). (19) Then: (i) the system (4a) and (15) with the initial and boundary conditions (6) and (16) has a weak solution…”
Section: Remark 1 (Energy Conservation Alternatively) Using the Calcmentioning
confidence: 99%