2000
DOI: 10.1016/s0142-727x(00)00051-5
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Towards a calibration of the length-scale equation

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Cited by 22 publications
(5 citation statements)
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“…The power law solution found by Cazalbou et al (1994) is retrieved together with a second power law solution which was already pointed out by Catris (1999) and Catris and Aupoix (2000), to be discussed later. As the transformed eddy viscosity g is linear, it must be pointed out that the length scale determining variable and turbulent kinetic energy evolutions are linked, as pointed out by Daris (2002) and Aupoix et al (2003), as:…”
Section: Solutions Near the Turbulent Region Edgementioning
confidence: 62%
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“…The power law solution found by Cazalbou et al (1994) is retrieved together with a second power law solution which was already pointed out by Catris (1999) and Catris and Aupoix (2000), to be discussed later. As the transformed eddy viscosity g is linear, it must be pointed out that the length scale determining variable and turbulent kinetic energy evolutions are linked, as pointed out by Daris (2002) and Aupoix et al (2003), as:…”
Section: Solutions Near the Turbulent Region Edgementioning
confidence: 62%
“…The present analysis holds as well for two-equation models, whatever the constitutive relation (eddy viscosity, non-linear eddy viscosity or explicit algebraic Reynolds stress model) as for differential Reynolds stress models. For that, generic models, following Catris and Aupoix (2000), are introduced.…”
Section: Turbulence Modelsmentioning
confidence: 99%
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“…The SSG/LRR-ω and the SSG-ω-Aup models both use the specific dissipation rate ω as the lengthscale providing quantity, due to its improved performance in adverse-pressure-gradient (APG) flow, and thus in aeronautical applications. This behavior, observed for the two-equation k − ω models, has been explained by Huang and Bradshaw (1995) and Catris and Aupoix (2000) by the mathematical ability of the ωequation to preserve the log-law prediction in APG, compared to the ε-equation. The SSG-ω-Aup model also uses a specific nearwall approach to correctly reproduce the asymptotic behavior of the turbulent quantities at the wall, including the near-wall model of Manceau and Hanjalić (2002) developed for the EB-RSM.…”
Section: Introductionmentioning
confidence: 77%
“…where y corresponds to the wall distance. The clipping corresponds to a Yap-type correction to prevent the deviation of the log-law slope in APG flows (see for instance Catris and Aupoix, 2000), whereas the damping function ensures the correct asymptotic behavior of k close to the wall.…”
Section: Length-scale Providing Equationmentioning
confidence: 99%