A modular particle-continuum (MPC) numerical method for steady-state flows is presented which solves the Navier-Stokes equations in regions of near-equilibrium and uses the direct simulation Monte Carlo (DSMC) method to simulate regions of non-equilibrium gas flow. Existing, state-of-the-art, DSMC a
β¦ LIBER β¦
A phenomenological and extended continuum approach for modelling non-equilibrium flows
β Scribed by S. Mizzi; R. W. Barber; D. R. Emerson; J. M. Reese; S. K. Stefanov
- Book ID
- 105843973
- Publisher
- Springer
- Year
- 2007
- Tongue
- English
- Weight
- 246 KB
- Volume
- 19
- Category
- Article
- ISSN
- 0935-1175
No coin nor oath required. For personal study only.
π SIMILAR VOLUMES
A modular particleβcontinuum numerical m
β
T.E. Schwartzentruber; L.C. Scalabrin; I.D. Boyd
π
Article
π
2007
π
Elsevier Science
π
English
β 911 KB
A monofluid flow mathematical model of l
β
M. S. Mongiovì
π
Article
π
1994
π
Springer Netherlands
π
English
β 915 KB
Modelling transient heat conduction in s
β
Kenny Jolley; Simon P.A. Gill
π
Article
π
2009
π
Elsevier Science
π
English
β 750 KB
A numerical model for turbulent non-equi
β
Stephen W. Webb; John C. Chen
π
Article
π
1982
π
Elsevier Science
π
English
β 1013 KB
Integral representation for non-maxwell
β
Moorad Alexanian; B. Grinstein
π
Article
π
1980
π
Elsevier Science
π
English
β 538 KB
A phenomenological model for non-Faradai
β
Baotong Lu; Jingli Luo
π
Article
π
2010
π
Elsevier Science
π
English
β 365 KB
The non-Faradaic material loss is the difference between the material loss measured by the weight loss method and the one determined by Faraday's secondary law. Being observable in flowing corrosive electrolytes, it is promoted by increasing wall shear stress and anodic dissolution, is reduced by th