๐”– Bobbio Scriptorium
โœฆ   LIBER   โœฆ

Flow in an impeller-stirred tank using an immersed-boundary method

โœ Scribed by R. Verzicco; M. Fatica; G. Iaccarino; P. Orlandi


Publisher
American Institute of Chemical Engineers
Year
2004
Tongue
English
Weight
204 KB
Volume
50
Category
Article
ISSN
0001-1541

No coin nor oath required. For personal study only.


๐Ÿ“œ SIMILAR VOLUMES


An Immersed-Boundary Finite-Volume Metho
โœ Jungwoo Kim; Dongjoo Kim; Haecheon Choi ๐Ÿ“‚ Article ๐Ÿ“… 2001 ๐Ÿ› Elsevier Science ๐ŸŒ English โš– 378 KB

A new immersed-boundary method for simulating flows over or inside complex geometries is developed by introducing a mass source/sink as well as a momentum forcing. The present method is based on a finite-volume approach on a staggered mesh together with a fractional-step method. Both momentum forcin

AN ARTIFICIAL BOUNDARY CONDITION FOR TWO
โœ HOUDE HAN; WEIZHU BAO ๐Ÿ“‚ Article ๐Ÿ“… 1996 ๐Ÿ› John Wiley and Sons ๐ŸŒ English โš– 397 KB ๐Ÿ‘ 2 views

We design an artificial boundary condition for the steady incompressible Navier-Stokes equations in streamfhction-vorticity formulation in a flat channel with slip boundary conditions on the wall. The new boundary condition is derived fiom the Oseen equations and the method of lines. A numerical exp

BOUNDARY TREATMENT AND AN EFFICIENT PRES
โœ Sandip Mazumder; Michael F. Modest ๐Ÿ“‚ Article ๐Ÿ“… 1997 ๐Ÿ› John Wiley and Sons ๐ŸŒ English โš– 208 KB ๐Ÿ‘ 2 views

The generalized Langevin model, which is used to model the motion of stochastic particles in the velocitycomposition joint probability density function (PDF) method for reacting turbulent flows, has been extended to incorporate solid wall effects. Anisotropy of Reynolds stresses in the near-wall reg

An analytical solution of the molecular
โœ Ashok Khanna; Anil Kumar ๐Ÿ“‚ Article ๐Ÿ“… 1989 ๐Ÿ› John Wiley and Sons ๐ŸŒ English โš– 871 KB

Mole balance for the molecular weight distribution in homogeneous continuos-flow stirred tank reactors (HCSTRs) for reversible step-growth polymerization has been written. The relation for the moment generating function G is found to be a nonlinear ordinary differential equation and has been solved