Deconinck / Dick Computational Fluid Dynamics 2006

Proceedings of the Fourth International Conference on Computational Fluid Dynamics, ICCFD4, Ghent, Belgium, 10-14 July 2006
1. Auflage 2009
ISBN: 978-3-540-92779-2
Verlag: Springer-Verlag
Format: PDF
Kopierschutz: Adobe DRM (»Systemvoraussetzungen)

E-Book, Englisch, 893 Seiten

Autoren/Hrsg.

Deconinck, Herman

Dick, E.

Inhaltsverzeichnis

1;Preface;6
2;Contents;8
3;Part I Invited Speakers;21
3.1;Two new techniques for generating exactly incompressible approximate velocities;22
3.2;Bernardo Cockburn;22
3.3;Role of High-End Computing in Meeting NASA's Science and Engineering Challenges;33
3.4;Rupak Biswas, Eugene L. Tu, William R. Van Dalsem;33
3.5;Recent Advances of Multi-phase Flow Computation with the Adaptive Soroban-grid Cubic Interpolated Propagation (CIP) Method;48
3.6;Takashi Yabe, Youichi Ogata, Kenji Takizawa;48
4;Part II Schemes;63
4.1;On the Computation of Steady-State Compressible Flows Using a DG Method;64
4.2;Hong Luo, Joseph D. Baum, Rainald Löhner;64
4.3;Space-Time Discontinuous Galerkin Method for Large Amplitude Nonlinear Water Waves;70
4.4;Yan Xu, Jaap J.W. van der Vegt;70
4.5;A discontinuous Galerkin method with Hancock-type time integration for hyperbolic systems with stiff relaxation source terms;76
4.6;Yoshifumi Suzuki, Bram van Leer;76
4.7;Very High Order, Non-Oscillatory Fluctuation Distribution Schemes;82
4.8;M.E.Hubbard, N.Z.Mebrate;82
4.9;High-order residual distribution : discontinuity capturing crosswind dissipation and diffusion;88
4.10;N. Villedieu-Ligout, M. Ricchiuto, H. Deconinck;88
4.11;High-Order Fluctuation-Splitting Schemes for Advection-Diffusion Equations;94
4.12;Hiroaki Nishikawa and Philip Roe;94
4.13;Construction of Higher Order Residual Distribution Schemes;100
4.14;Rémi Abgrall and Cédric Tavé;100
4.15;Stable and convergent residual distribution for time-dependent conservation laws;106
4.16;Mario Ricchiuto, Rémi Abgrall;106
4.17;An ALE Formulation of the Multidimensional Residual Distribution Scheme for Computations on Moving Meshes ;112
4.18;Jirí Dobes, Herman Deconinck;112
4.19;Solution of the steady Euler equations using Fluctuation Splitting schemes on quadrilateral elements;118
4.20;D. T. Rubino, P. De Palma, G. Pascazio, M. Napolitano;118
4.21;A Residual-Based Compact Scheme for All-Speed Flows on Unstructured Grids;124
4.22;Christophe Corre, Alberto Beccantini, Thibaud Kloczko;124
4.23;Vorticity Preserving Scheme for Unsteady Compressible Flows;130
4.24;Fabrice Falissard, Alain Lerat, Jacques Sidès;130
4.25;Extension of the SD Method to Viscous Flow on Unstructured Grids;136
4.26;Z. J. Wang, Yuzhi Sun, C. Liang, Yen, Liu;136
4.27;Strictly Stable High Order Difference Methods for the Compressible Euler and Navier-Stokes Equations;142
4.28;Bernhard Müller;142
4.29;Uniform Flow Preserving Property of High Order Upwind Finite Difference Schemes on Generalized Coordinate System;148
4.30;Taku Nonomura, Nobuyuki Iizuka, Kozo Fujii;148
4.31;Implementation of an Enhanced Flux Formulation for Unsteady Navier-Stokes Solutions;154
4.32;G. Xia, S. Sardeshmukh, V. Sankaran, C. L. Merkle;154
4.33;Computation of Eigenspaces of Hyperbolic Systems ;160
4.34;S.K. Godunov, O.B. Feodoritova, V.T. Zhukov;160
4.35;A Proposed Cure to the Carbuncle Phenomenon;166
4.36;Farzad Ismail, Philip L. Roe, Hiroaki Nishikawa;166
4.37;The High Order WLSQR Scheme and its Applications in Turbomachinery;172
4.38;Jivrí Fürst;172
4.39;Building Better (Weighted) ENO Methods;178
4.40;William J. Rider;178
4.41;Discontinuity Diagnosis Essentially Non-Oscillatory Schemes;184
4.42;Yun-Feng Liu, Jian-Ping Wang;184
4.43;Third Order Reconstruction on Unstructured Highly Irregular 3D Meshes;190
4.44;J. Rokicki, R. Wieteska;190
4.45;An Intrinsically Multi-Dimensional Acoustics Convection Upstream Resolution Algorithm for the Euler Equations;196
4.46;Joe Iannelli;196
4.47;Multi-dimensional Limiting Process for Two- and Three-dimensional Flow Physics Analyses;202
4.48;Sung-Hwan Yoon, Chongam Kim and Kyu-Hong Kim;202
4.49;A Multidimensional Kinetic Upwind Method for Euler Equations;208
4.50;Keshav S Malagi, P S Kulkarni, S M Deshpande;208
4.51;High Resolution Quantum Kinetic Beam Schemes and Its Applications to Ideal Quantum Gas Dynamical Flows;214
4.52;Y. H. Shi, J. Y. Yang;214
4.53;Semi-GLS Stabilization of FEM Applied to Incompressible Flows with Higher Reynolds Numbers;220
4.54;Pavel Burda, Jaroslav Novotný, Jakub vSístek;220
4.55;Finite volume box scheme for a certain class of nonlinear conservation laws in mixed form;226
4.56;H. Beaugendre, A. Ern;226
4.57;Numerical study of the Colocated Clustered Finite Volume Scheme;232
4.58;O. Touazi, E. Chénier, R. Eymard;232
4.59;Arbitrary High Order Finite Volume Schemes on Unstructured Meshes;238
4.60;Michael Dumbser, Claus-Dieter Munz;238
5;Part III Algorithms;245
5.1;A high scalability parallel algebraic multigrid solver;246
5.2;T. Saad, M. Darwish;246
5.3;Jacobian-Free Newton-Krylov Methods: Issues and Solutions;252
5.4;David W. Zingg, Todd T. Chisholm;252
5.5;Non-stationary two-stage relaxation based on the principle of aggregation multi-grid;258
5.6;R. Haelterman, J. Vierendeels, D. Van Heule;258
5.7;The efficient and accurate solution of porous media flow problems with strongly discontinuous coefficients;264
5.8;Y.C. Lee, P.H. Gaskell;264
5.9;Stability of Pressure-Correction Algorithms for Low-Speed Reacting and Non-Reacting Flow Simulations;270
5.10;Pieter Rauwoens, Krista Nerinckx, Jan Vierendeels, Bart Merci;270
5.11;A simple hybrid well-balanced method for a 2D viscous shallow water model;276
5.12;F. Marche;276
5.13;A kinetic energy-preserving P1 iso P2/P1 finite-element method for computing unsteady incompressible flows;282
5.14;David Vanden-Abeele, Deryl Snyder, Yves Detandt and Gérard Degrez;282
5.15;Study on the segregation algorithms of the incompressible Navier-Stokes equations using P1P1/P2P1 finite element formulation;288
5.16;Myung H. Cho, Hyoung G. Choi, Jung Y. Yoo;288
5.17;A Mach-uniform algorithm: coupled versus segregated approach;294
5.18;Krista Nerinckx, Jan Vierendeels, Erik Dick;294
5.19;Crank-Nicolson Scheme for Solving Low Mach Number Unsteady Viscous Flows Using an Implicit Preconditioned Dual Time Stepping Technique;300
5.20;D. Vigneron, G. Deliége, J.-A. Essers;300
5.21;Heated Wake by Deferred Corrected ULTRA;306
5.22;Salem Bouhairie, Vincent H. Chu;306
5.23;Convergence Acceleration for Euler Equationbased on SPR;312
5.24;Dohyung Lee, Hyungmin Kang and Dongho Lee;312
5.25;Acceleration of Unsteady Incompressible Flow Calculation Using Extrapolation Methods;318
5.26;Kenjiro Shimano, Shun Yonezu, Yoshiteru Enomoto;318
5.27;Improved Numerical Simulations of Incompressible Flows Based on Viscous/Inviscid Interaction Procedures;324
5.28;M. Hafez, A. Shatalov, M. Nakajima;324
6;Part IV AMR - Adaptive mesh techniques;330
6.1;A Parallel Unstructured Overset Mesh Technique for Unsteady Flow Simulations;331
6.2;Mun Seung Jung, Oh Joon Kwon;331
6.3;A Parallel Overset Adaptive Cartesian/Prism Grid Method for Moving Boundary Flows;337
6.4;Ravishekar Kannan, Z.J. Wang;337
6.5;Navier-Stokes Simulation of Local Winds Over the Earth's Topography;343
6.6;Neal M. Chaderjian, Jasim U. Ahmad, Marc G. Kramer, Terry L. Holst;343
6.7;Grid-adaptive Simulations of Relativistic Flows;349
6.8;R. Keppens, Z. Meliani;349
6.9;Solution of Laminar Combusting Flows Using a Parallel Implicit Adaptive Mesh Refinement Algorithm;355
6.10;Scott A. Northrup, Clinton P. T. Groth;355
6.11;Towards Direct Numerical Simulation of a Diffusion Flame-Shock Interaction with an AMR Algorithm;361
6.12;G. Billet, J. Ryan and M. Borrel;361
6.13;Adaptive Multigrid Solutions of Thin Film Flows over Topography;367
6.14;Y.C. Lee, H.M. Thompson, P.H. Gaskell;367
6.15;A meshless solver for computing viscous flows on Cartesian like grids;373
6.16;Munikrishna N., Karthikeyan N., Balakrishnan N.;373
6.17;Immersed boundary technique for compressible flow simulations on semi-structured grids;379
6.18;M. D. de Tullio, P. De Palma, G. Iaccarino, G. Pascazio, M. Napolitano;379
6.19;Incompressible Flow Simulations Using Virtual Boundary Method with New Direct Forcing Terms Estimation;385
6.20;Hidetoshi Nishida, Kazuhiro Sasao;385
6.21;A Hybrid Building-Block and Gridless Method for Computing Shock Waves;391
6.22;Hong Luo, Joseph D. Baum, Rainald Löhner;391
6.23;A Residual estimator based adaptation strategy for compressible flows;397
6.24;Ganesh N., Nikhil V Shende, Balakrishnan N.;397
6.25;Anisotropic solution-adaptive technique applied to simulations of steady and unsteady compressible flows;403
6.26;Jerzy Majewski, Aristotelis N. Athanasiadis;403
6.27;Simulation of Flow around Wing Sections by Building-Cube Method;409
6.28;Kazuhiro Nakahashi, Yota Sakurai;409
6.29;Robust Mesh Deformation using the Linear Elasticity Equations;415
6.30;Richard P. Dwight;415
7;Part V DNS and LES;421
7.1;Identification and role of coherent structures in two-dimensional turbulence;422
7.2;Ch.-H. Bruneau, P. Fischer, H. Kellay;422
7.3;Temporal Evolution of Dominant Flow Structures in Turbulent Channel Flow;428
7.4;Giancarlo Alfonsi, Leonardo Primavera;428
7.5; LES of passive scalar in compressible mixing layers;434
7.6;C. Le Ribault;434
7.7;Buoyancy Effect on Turbulence using Blocks;440
7.8;Vincent H. Chu, Wihel Altai, Camilo E. Pinilla;440
7.9;Direct numerical simulation of Taylor-Couette flows in the fully turbulent regime;446
7.10;Yves Detandt, Mikhail Krivilyov, Yacine Salhi, David Vanden Abeele, Jan Fransaer;446
7.11;Flux Limiting Schemes for Implicit Large Eddy Simulation of Synthetic Jets;452
7.12;Sanjay Patel, Dimitris Drikakis;452
7.13;Implicit Large Eddy Simulation of a Flow around a Cylindrical Body;458
7.14;Satoko Komurasaki, Kunio Kuwahara;458
7.15;LES study of the impact of the wake structures on the aerodynamics of a simplified ICE2 train subjected to a side wind;464
7.16;Hassan Hemida, Sinivsa Krajnovic;464
7.17;Use of Immersed Boundary Technique in a Cartesian LES solver to study wake flows;470
7.18;J. Bodart, R. Giammanco, P. Rambaud, C. Benocci;470
7.19;Stochastic generation of velocity fluctuation for turbulent inflow and initial condition ;476
7.20;M. Fathali, M. Klein, T. Broeckhoven, C. Lacor, M. Baelmans;476
7.21;Study on Numerical and Modelling Error in LES of a Channel Flow Using Explicit Filtering;482
7.22;Tellervo T. Brandt;482
7.23;Wall Boundary Conditions for Variational Multiscale Large-Eddy Simulations;488
7.24;S. J. Hulshoff, E. A. Munts;488
7.25;The Sampling Based Dynamic Procedure for Numerical Discretization Enhancement;494
7.26;Dieter Fauconnier, Chris De Langhe, Erik Dick;494
7.27;Application of a Unique Eddy--Viscosity Model for a Hybrid LES--RANS Method;500
7.28;Michael Breuer, Benoit Jaffrézic;500
7.29;A locally superconvergent scheme for the simulation of turbulent flows in complex geometries;506
7.30;M.V. Salvetti, S. Camarri, B. Koobus, A. Dervieux;506
7.31;URANS Analysis of Flow-Induced Cavity Resonances;512
7.32;M. Mesbah, W. Desmet, M. Baelmans;512
7.33;Revisiting URANS computations of the flow behind a backward-facing step using second moment closures;518
7.34;A. Fadai-Ghotbi, R. Manceau, J. Borée;518
7.35;Contribution of Turbulence Equation Terms to the Shear Stress Balance;524
7.36;Dragan Kovzulovic, Thomas Röber;524
8;Part VI Optimisation and Flow Control;530
8.1;Optimum Shape Design for Unsteady Three-Dimensional Viscous Flows;531
8.2;S. Nadarajah, A. Jameson;531
8.3;Comparison of Exact and Approximate Discrete Adjoint for Aerodynamic Shape Optimization;537
8.4;Giampietro Carpentieri, Michel J.L van Tooren, Barry Koren;537
8.5;Adjoint Sensitivity Computations for an Embedded-Boundary Cartesian Mesh Method and CAD Geometry;543
8.6;Marian Nemec, Michael J. Aftosmis;543
8.7;Optimum shape design through multilevel gradient-based method using Bézier parametrisation;549
8.8;M. Martinelli, F. Beux;549
8.9;High-Fidelity Multi-criteria Aero-structural Optimisation using Hierarchical Parallel Evolutionary Algorithms;555
8.10;L. F.González, L. Damp, J. Périaux, K. Srinivas;555
8.11;Flow Control Optimization Using Neural Networks and Genetic Algorithms;561
8.12;Raymond P. LeBeau, Jr., Narendra K. Beliganur, Thomas Hauser;561
8.13;Shape Optimization for Dense Gas Flows in Turbine Cascades;567
8.14;Pietro Marco Congedo, Paola Cinnella, Christophe Corre;567
8.15;Control of Flow Past a Stalled NACA0015Airfoil;573
8.16;Meiliang Mao, Xiaogang Deng, Jianqiang Chen;573
8.17;Active control of a transitional flow over a backward-facing step;579
8.18;E. Creusé, A. Giovannini, I. Mortazavi;579
8.19;Synthetic Jet Actuator Modeling for Flow Control Applications;585
8.20;M. Ferlauto, R. Marsilio;585
8.21;Numerical Study of Transonic Drag Reduction for Flow Past Airfoils Using Active Flow Control;591
8.22;Jose Vadillo, Ramesh K. Agarwal;591
9;Part VII Two-phase and multimaterial flows;598
9.1;Level Set based Finite Element Method of Bubble-in-Liquid Simulation;599
9.2;Hyoung G. Choi, Jung Y. Yoo;599
9.3;Level Set method for Curvature-driven Flows in Microfluidics;605
9.4;Paul Vigneaux;605
9.5;Mesh-Based Microstructure Representation Algorithm for Simulating Pore-scale Transport Phenomena in Porous Media;611
9.6;May-Fun Liou, Issac Greber;611
9.7;The Numerical Simulation of Liquid Sloshing in Microgravity;617
9.8;Roel Luppes, Joop A. Helder, Arthur E.P. Veldman;617
9.9;Numerical Prediction of Interfacial Instability;623
9.10;Robert Nourgaliev, Meng-Sing Liou, Theo Theofanous;623
9.11;A Lattice Boltzmann based Single-Phase Model: Surface Tension and Wetting;629
9.12;Xiu Qing Xing, David Lee Butler, Chun Yang;629
9.13;Hyperbolicity, Discontinuities, and Numerics of Two-Fluid Models;635
9.14;Meng-Sing Liou, Loc Nguyen, Chih-Hao Chang, Sveta Sushchikh, Robert Nourgaliev, Theo Theofanous;635
9.15;Computation of Multiphase Mixture Flows using RoeM and AUSMPW+ Schemes;641
9.16;Seung-Won Ihm, Kyung Rok Lee, Chongam Kim, and Kyu Hong Kim;641
9.17;A relaxation method for the Kapila model;647
9.18;C. Berthon, B. Braconnier, J. Claudel, B. Nkonga;647
9.19;Direct numerical simulation of bubbly Taylor-Couette flow;653
9.20;Thomas Nierhaus, Jean-Franccois Thomas, Yves Detandt, David Vanden Abeele;653
9.21;Numerical simulation of unsteady flow inside an impulsively started liquid drop;659
9.22;M. Krivilyov, J. Fransaer;659
9.23;Accurate and Efficient Solution of 2D Steady Water Flows with Surface Waves and Turbulence;665
9.24;Jeroen Wackers, Barry Koren;665
9.25;Numerical analysis of bubble migration in thermocapillary flows of an open cylindrical container;672
9.26;Hiroaki Ohira, Satoshi Matsumoto, Takashi Mashiko, Shinichi Yoda, Yasuhiro Kamotani;672
10;Part VIII Hypersonic and supersonic flow;679
10.1;Numerical investigation of an effusion cooled thermal protection material;680
10.2;Volker Hannemann;680
10.3;Calculation of Transport Properties for Entry into the Martian Atmosphere;686
10.4;Johannes Baumgart, Tobias Leicht, Thierry Magin, Paolo Barbante, Pietro Rini, Gérard Degrez, Roger Grundmann;686
10.5;Numerical simulation of supersonic flow around a double ramp configuration and correlation with experiment;692
10.6;Fedorchenko I.A., Fedorova N.N., Kharlamova Yu.V., Gaisbauer U., and Kraemer E.;692
10.7;Effects of Mach number on the combustion zone length for a RAMAC configuration at sub-detonative mode ;698
10.8;Tarek Bengherbia, Yufeng Yao, Pascal Bauer;698
10.9;A Finite Element/Finite Volume Mixed Solver;704
10.10;He Lixing, Zhang Laiping, Zhang Hanxin;704
10.11;Numerical Analysis for Magnetic Control of Heat-Transfer and Pressure in Hypersonic Shock Wave Interference Flows;710
10.12;Daisuke Tsubakino, Yoshiteru Tanaka, Kozo Fujii;710
10.13;Numerical Simulation of a Flat-Plate Hypersonic Shock Layer Perturbed by External Acoustic Waves;716
10.14;A.N.Kudryavtsev, S.G.Mironov, T.V.Poplavskaya, I.S.Tsyryulnikov;716
10.15;Numerical Simulation of Supersonic Turbulent Flows over Backward--Facing Steps;722
10.16;N.N. Fedorova, I.A. Bedarev;722
10.17;Unified Flow Solver Combining Boltzmann and Continuum Models for Simulations of Gas Flows for the Entire Range of Knudsen Numbers;728
10.18;V. V. Aristov, A. A. Frolova, S. A. Zabelok, V. I. Kolobov, R. R. Arslanbekov;728
10.19;Adaptive Boltzmann/Navier-Stokes Hybrid Method for Multi-Scale Gas Flow Simulation;734
10.20;Koji Morinishi;734
10.21;Computing Simulation of Hypersonic Magneto-Fluid-Dynamics Interaction;740
10.22;J.S. Shang;740
10.23;Numerical Simulation of R-M instability at High Mach Numbers;747
10.24;Fu Dexun, Ma Yanwen, Liang Xian;747
11;Part IX Multiphysics and interdisciplinary coupled flow problems;754
11.1;Boundary conditions by low-order modelling;755
11.2;Marcelo Buffoni, Haysam Telib, Angelo Iollo;755
11.3;Multi Scale Numerical Simulation of Dispersed Reacting Flow, with application to Chemical Vapor Deposition of Alumina;761
11.4;Andrey A. Markov;761
11.5;Computational Analysis of Flow through a Multiple Nozzle Driven Laser Cavity and Diffuser;767
11.6;M. A. Sriram, N. K. S. Rajan, P. S. Kulkarni;767
11.7;MHD Analysis of Force Acting on Dipole Magnetic Field in Magnetized Plasma Flow;773
11.8;Hiroyuki Nishida, Hiroyuki Ogawa, Yoshifumi Inatani;773
11.9;Performance of High Order Filter Methods for a Richtmyer-Meshkov Instability;779
11.10;B. Sjögreen, H.C.Yee;779
11.11;Unsteady Flow Simulation of High Speed Turbopumps;785
11.12;Cetin C. Kiris, Dochan Kwak, William Chan, Jeffrey A. Housman;785
11.13;Use of the Gaussian Moment Closure for the Modelling of Continuum and Micron-Scale Flows with Moving Boundaries;791
11.14;J. G. McDonald, J. S. Sachdev, C. P. T. Groth ;791
11.15;Development of ``MATIS-SC'' for High Speed Steam Flow with Non-equilibrium Condensation;797
11.16;Ryo Morita, Fumio Inada;797
11.17;Numerical Method for Near-critical Fluids of Arbitrary Material ;803
11.18;Satoru Yamamoto and Atsushi Ito;803
11.19;Flow Physics and Stokes' Theorem in Wind Turbine Aerodynamics;809
11.20;Sven Schmitz, Jean-Jacques Chattot;809
11.21;The Role of Separation Bubble on an Airfoil at Low Reynolds Numbers;815
11.22;Yusuke Nakae, Tatsuo Motohashi, Satoko Komurasaki, Kunio Kuwahara;815
11.23;Effect of the thermal boundary conditions and physical properties variation on transient natural convection of high Prandtl number fluids;821
11.24;O. Younis, J. Pallares, F. X. Grau;821
11.25;Aeroacoustic simulation of the flow in a Helmholtz resonator;827
11.26;Laurent Georges, Grégoire Winckelmans, Stéphane Caro, Philippe Geuzaine;827
11.27;Explicit low dispersive and low dissipative non-centered finite differences and filters;833
11.28;Berland J., Bogey C., Bailly C.;833
11.29;A New Principle of Non-Reflecting and its Application to Hyperbolic Conservation Laws ;839
11.30;Ching Y. Loh, Philip C.E. Jorgenson;839
11.31;Numerical Solution of the Linearized Euler Equations Using Compact Schemes;845
11.32;Kris Van den Abeele, Jan Ramboer, Ghader Ghorbaniasl, Chris Lacor;845
11.33;Transonic Aeroelastic Computations of a Delta Wing Configuration with High Fidelity Equations;851
11.34;Hiroshi Terashima, Kenji Ono;851
11.35;Transonic Buffet over Symmetric Airfoils;857
11.36;Alexander Kuz'min, Alexey Shilkin;857
11.37;Aerodynamic Performance of a Deforming Elastic Body in Supersonic Flow;863
11.38;Tomohisa Hashimoto, Koji Morinishi, Nobuyuki Satofuka;863
11.39;CAD-Centric Framework for Aero-mechanical Optimization - Counter-Rotating Fan Design;869
11.40;Hiromasa Kato, Stéphane Pierret, Rajan Filomeno Coelho;869
11.41;Aeroelastic Solutions for Viscous Flows using the Time Accurate and Non-Linear Frequency Domain Methods;875
11.42;F. Kachra, S. Nadarajah, C. Tatossian;875
11.43;Role of Interpolation in Airflow Induced Vibration in Hard Disk Drive Enclosures;881
11.44;S. Ali, M. Damodaran;881
11.45;Computation of fluid structure interaction with application to three-Dimensional combustion system;887
11.46;Zinedine Khatir;887
11.47;Numerical Computations of Unsteady Aerodynamics of Projectiles using an Unstructured Technique;894
11.48;Jubaraj Sahu;894