International Journal for Numerical Methods in Fluids 2003: Vol 43 Table of Contents

5 Pages·2003·1 MB·English

CONTENTS
Volume 43, Issue Nos. 1-12 (2003)
International Journal for
NUMERICAL METHODS IN FLUIDS
Issue No. 1, 10 September
An accurate and efficient finite difference algorithm for non-hydrostatic free-surface
flow with application to wave propagation: G. S. Stelling and M. Zijlema
A multigrid pseudospectral method for steady flow computation: M.-H. Chou
On the application of the Heirmholtz—Hodge decomposition in projection methods for
incompressible flows with general boundary conditions: F. M. Denaro
The improvec surface gradient method for flows simulation in variable bed topography
channel using TVD-MacCormack scheme: M.-H. Tseng
Assessment of conservative weighting scheme in simulating chemical vapour
deposition with trace species: J.-S. Wu, W.-J. Hsiao, Y.-Y. Lian and K.-C. Tseng
Issue No. 2, 20 September
A vertically moving grid finite-element modelling of tidal flow in the Changjiang Estuary,
China: Z. Shi, S. S. Li and O. S. Petersen
Coupled lubrication and Stokes flow finite elements: M. S. Stay and V.H. Barocas .. .
A fully implicit method for steady and unsteady viscous flow simulations: J. Li, F. Li
Numerical analysis of supersonic combustion ramjet with upstream fuel injection:
R. Savino and G. Pezzella
Lattice Boltzmann simulations for flow and heat/mass transfer problems in a three-
dimensional porous structure: M. Yoshino and T. Inamuro
The partition-of-unity method for linear diffusion and convection problems: accuracy,
stabilization and multiscale interpretation: E. A. Munts, S. J. Hulshoff and
R. de Borst
A substructure-based iterative inner solver coupled with Uzawa’s algorithm for the
Stokes problem: A. Zsaki, D. Risen and M. Paraschivoiu
Issue No. 3, 30 September
Modelling solitons under the hydrostatic and Boussinesq approximations: C. Daily and
J. Imberger
An implicit edge-based ALE method for the incompressible Navier-Stokes equations:
R. W. Smith and J. A. Wright
vi
A block-implicit numerical procedure for simulation of buoyant swirling flows in a model
furnace: M. J. S. de Lemos
3D free-surface flow computation using a RANSE/Fourier—Kochin coupling:
P.-E. Guillerm and B. Alessandrini
Characteristic Euler shock-fitting formulation for multi-dimensional flows: E. A. Basesme,
|. S. Akmandor and A. S. Ucer
Issue No. 4, 10 October
Numerical computation of three-dimensional incompressible Navier-Stokes equations
in primitive variable form by DQ method: C. Shu, L. Wang and Y. T. Chew
Direct computation of thermodynamic properties of chemically reacting air with
consideration to CFD: J. lannelli
Computation of turbulent free-surface flows around modern ships: T. Li
A deconvolution-based fourth-order finite volume method for incompresssible flows on
non-uniform grids: P. lannelli, F. M. Denaro and G. De Stefano
Issue No. 5, 20 October
Special Issue:
ECCOMAS Computational Fluid Dynamics Conference Part |
Introduction: N. P. Weatherill and K. Morgan
Numerical modelling of free-surface flows in ship hydrodynamics: U. P. Bulgarelli,
C. Lugni and M. Landrini
Predictability and uncertainty in CFD: D. Lucor, D. Xiu, C.-H. Su and G. E. Karniadakis .
About theoretical and practical impact of mesh adaptions on approximation of functions
and PDE solutions: A. Dervieux, D. Leservoisier, P.-L. George and Y. Coudiére ....
A multigrid accelerated time-accurate inviscid compressible fluid flow solution
algorithm employing mesh movement and local remeshing: K. A. Sorensen,
O. Hassan, K. Morgan and N. P. Weatherill
Fast preconditional multigrid solution of the Euler and Navier-Stokes equations
for steady, compressibie flows: D. A. Caughey and A. Jameson
Computation of moving boundaries and interfaces and stabilization parameters:
T. E. Tezduyar
The distinctive CFD challenges of computational rheology: K. Walters and
M. F. Webster
Issue No. 6-7, 30 October-10 November
Special Issue:
ECCOMAS Computational Fluid Dynamics Conference Part Il
Effects of blood models on flows through a stenosis: P. Neofytou and D. Drikakis ....
Applications of patient-specific CFD in medicine and life sciences: R. Lohner, J. Cebral,
O. Soto, P. Yim and J. E. Burgess
Numerical modelling of the pressure wave propagation in the arterial flow: G. Pontrelli
and E. Rossoni
Computational modelling of 1D blood flow with variable mechanical properties and
its application to the simulation of wave propagation in the human arterial system:
S. J. Sherwin, L. Formaggia, J. Peiré and V. Franke
Auto-regulation and blood flow in the cerebral circulation: T. David, M. Brown and
A. Ferrandez
Obituary: Dmitri Sharov
Unstructured Navier-Stokes grid generation at corners and ridges: D. Sharov, H. Luo,
J. D. Baum and R. Lohner
Transient fixed point based unstructured mesh adaptation: F. Alauzet, P. L. George,
B. Mohammadi, P. Frey and H. Borouchaki
Mesh deformation and modification for time dependent problems: T. J. Baker
Some challenges of the realistic flow simulations by unstructured grid CFD:
K. Nakahashi, Y. Ito and F. Togashi
The rapid and robust generation of efficient hybrid grids for rans simulations over
complete aircraft: J. A. Shaw, S. Stokes and M. A. Lucking
Issue No. 8, 20 November
Special Issue:
ECCOMAS Computational Fluid Dynamics Conference Part lil
Computer solutions of Maxwell’s equations in homogeneous media: O. Pironneau .. .
A parallel implementation of the fast multipole method for Maxwell's equations:
Performance of a parallel implementation of the FMM for electromagnetics applica-
tions: G. Sylvand
A Reynolds-uniform numerical method for the Prandtl solution and its derivatives for
stagnation line flow: J. J. H. Miller, A. P. Musgrave and G. |. Shishkin
Computing realistic Reynolds-uniform error bounds for discrete derivatives of flow
velocities in the boundary layer for Prandtl’s problem: P. A. Farrell, A. F. Hegarty,
J. J. H. Miller, E. O’Riordan and G. |. Shishkin
A Reynolds-uniform numerical method for Prandtl’s boundary layer problem for flow
past a wedge: J. S. Butler, J. J. H. Miller and G. |. Shishkin
Numerical techniques for flow problems with singularities: P. A. Farrell, A. F. Hegarty,
J. J. H. Miller, E. O'Riordan and G. |. Shishkin
viii
Parameter-uniform numerical methods for a laminar jet problem: A. R. Ansari,
A. F. Hegarty and G. |. Shishkin
Adaptive hp finite element computations of the scattering width output of Maxwell's
equations: P. D. Ledger, J. Peraire, K. Morgan, O. Hassan and N. P. Weatherill ....
Issue No. 9, 30 November
Special Issue:
ECCOMAS Computational Fluid Dynamics Conference Part IV
Computation of an unsteady complex geometry flow using novel non-linear turbulence
models: P. G. Tucker, Y. Liu, ¥.M . Chung and A. Jouvray
Hybrid LES-RANS modelling: a one-equation SGS model combined with a kK—w model
for predicting recirculating flows: L. Davidson and S. H. Peng
URANS computations for an oscillatory non-isothermal triple-jet using the k-e and
second moment closure turbulence models: M. Nishimura and N. Kimura
Eulerian—Lagrangian DNS/LES of particle-turbulence interactions in wall-bounded
flows: L. M. Portela and R. V. A. Oliemans
Modelling three-dimensional rotating flows in cylindrical-shaped vessels: K. S. Sujatha
and M. F. Webster
Implicit kinetic themes for the Euler equations: H. S. R. Reksoprodjo and R. K. Agarwal
A spatially adaptive linear space-time finite element solution procedure for incom-
pressible flows with moving domains: Y. T. Feng and D. Peric
Numerical solutions of incompressible Navier-Stokes equations using modified
Bernoulli's law: A. Shatalov and M. Hafez
A non-iterative method for boundary-layer equations—Part II: Two-dimensional
laminar and turbulent flows: T. Cebeci and J. P. Shao
Issue No. 10-11, 10-20 December
Special Issue:
ECCOMAS Computational Fluid Dynamics Conference Part V
Inexact information aided, low-cost, distributed genetic algorithms for aerodynamic
shape optimization: M. K. Karakasis, A. P. Giotis and K. C. Giannakoglou
Meshless numerical simulation of (full) potential flows in a nozzle by genetic
algorithms: G. Winter, J. C. Abderraman, J. A. Jiménez, B. Gonzalez, E. Benitez and
Numerical aspects of an algorithm for the Eulerian simulation of two-phase flows:
P. J. Oliveira and R. |. Issa
Fluid dynamic numerical simulation of a gas phase polymerization reactor:
A. Gobin, H. Neau, O. Simonin, J.-R. Llinas, V. Reiling and J.-L. Sélo
Low dissipative high-order numerical simulations of supersonic reactive flows:
B. Sjégreen and H. C. Yee
Flutter instability prediction techniques for bridge sections: |. Robertson, S. J. Sherwin
and P. W. Bearman
Nonlinear time domain models for irregular wave diffraction about offshore structures:
P. Ferrant, D. Le Touzé and K. Pelletier
Numerical simulations of non-linear wave radiation in inviscid fiuid with a free surface:
M. Markiewicz, K. Ben-Nasr and O. Mahrenholtz
Distributed parallel computation for complex rotational flows of non-Newtonian fluids:
A. Baloch and M. F. Webster
Issue No. 12, 30 December
A staggered conservative scheme for every Froude number in rapidly varied shallow
water flows: G. S. Stelling and S. P. A. Duinmeijer
Computation of strongly swirling confined flows with cubic eddy-viscosity turbulence
models: X.-D. Yang and H. Ma
Verification testing in computational fluid dynamics: an example using Reynolds-
averaged Navier-Stokes methods for two-dimensional flow in the near wake of a
circular cylinder: J. Richmond-Bryant
A discontinuous Galerkin method/HLLC solver for the Euler equations: M. Remaki and
W. G. Habashi
Efficient solution of the steady-state Navier-Stokes equations using a multigrid pre-
conditioned Newton—Krylov method: Syamsudhuha and D. J. Silvester
AUTHOR INDEX
KEY WORD INDEX
Tribute
Aims and Scope
The advent of modern digital computers has enabled applied mathematicians, engineers, and scientists to make significant
progress in the solution of previously intractable problems. Indeed, it is now possible to assess the validity of previously
unproven concepts related to complex problems. This above trend is particularly valid in fluid mechanics, where there is an
increasing need to test previously advocated fundamental concepts and to develop new computer-based numerical techniques.
Indeed, it is now apparent that new concepts can be tested via numerical methods. The main objective of the Journal Numerical
Methods in Fluids is to provide a timely and readily accessible reference for those engaged in computer aided design and
research in computational fluid dynamics. The topics suitable for inclusion would range from potential flow, through viscous
flow (incompressible and compressible) and even to those problems in which turbulence is the dominant feature. Methods for
solving ancillary equations, such as transport and diffusion, are also quite relevant.
The expressed intention of the Journal is the dissemination of information relating to the development, refinement, and appli-
cation of computer-based numerical techniques for solving problems in fluids. These include, but are not limited to, the Finite
Difference and Finite Element methods, in each of which the manner of imposing boundary conditions to obtain a numerical
solution can be quite important. The submission of manuscripts in which the primary contribution is experimental is encour-
aged, if such results are compared with previously published numerical predictions. Also encouraged are papers in which an
established numerical technique is used to study some of the subtleties associated with the physics of fluids. Indeed, even papers
presenting closed form solutions directly related to engineering problems and demonstrated to be effective will also be published.
Although it is not practicable to publish complete computer codes, the salient features of a new code will be accepted as tech-
nical notes which should include examples illustrating the advantage of the techniques. It is envisaged that such codes should
similar manner.