Engineering Turbulence Modelling and Experiments 6: ERCOFTAC International Symposium on Engineering Turbulence and Measurements - ETMM6

Rodi, Wolfgang

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Table of contents
  • Contentsvii
  • Prefacexix
  • Part 1: Invited Lectures1
  • Chapter 1. Rapid techniques for measuring and modeling turbulent flows in complex geometries3
  • Chapter 2. Large-Eddy-Simulation of complex flows using the immersed boundary method17
  • Chapter 3. Transition modelling for general purpose CFD codes31
  • Chapter 4. Possibilities and limitations of computer simulations of industrial turbulent multiphase49
  • Part 2: Turbulence Modelling65
  • Chapter 5. (v2/k) – f Turbulence Model and its application to forced and natural convection67
  • Chapter 6. Calibrating the length scale equation with an explicit algebraic Reynolds stress constitu77
  • Chapter 7. Near-wall modification of an explicit algebraic Reynolds stress model using elliptic blen87
  • Chapter 8. Assessment of turbulence models for predicting the interaction region in a wall jet by re97
  • Chapter 9. Eddy collision models for turbulence107
  • Chapter 10. A stress-strain lag eddy viscosity model for unsteady mean flow117
  • Chapter 11. Turbulence modelling of statistically periodic flows: the case of the synthetic jet127
  • Chapter 12. Behaviour of turbulence models near a turbulent / non-turbulent interface revisited137
  • Chapter 13. Behaviour of nonlinear two-equation turbulence models at the free-stream edges of turbul147
  • Chapter 14. Extending an analytical wall-function for turbulent flows over rough walls157
  • Chapter 15. Bifurcation of second moment closures in rotating stratified flow167
  • Chapter 16. Turbulence Model for wall-bounded flow with arbitrary rotating axes175
  • Chapter 17. Application of a new algebraic structure-based model to rotating turbulent flows185
  • Chapter 18. k–ε modeling of turbulence in porous media based on a two-scale analysis195
  • Part 3: Direct and Large-Eddy Simulations205
  • Chapter 19. Effect of a 2-D rough wall on the anisotropy of a turbulent channel flow207
  • Chapter 20. Direct numerical simulation of rotating turbulent flows through concentric annuli217
  • Chapter 21. Numerical simulation of compressible mixing layers227
  • Chapter 22. LES in a U-bend pipe meshed by polyhedral cells237
  • Chapter 23. Large eddy simulation of impinging jets in a confined flow247
  • Chapter 24. LES study of turbulent boundary layer over a smooth and a rough 2D hill model257
  • Chapter 25. Flow features in a fully developed ribbed duct flow as a result of LES267
  • Chapter 26. Coherent structures and mass exchange processes in channel flow with spanwise obstructio277
  • Chapter 27. Large Eddy Simulation of natural convection boundary layer on a vertical cylinder287
  • Chapter 28. Development of the subgrid-scale models in large eddy simulation for the finite differen297
  • Chapter 29. Assessment of the digital filter approach for generating large eddy simulation inlet con307
  • Part 4: Hybrid LES/RANS Simulations317
  • Chapter 30. Hybrid LES-RANS : Computation of the flow around a three-dimensional hill319
  • Chapter 31. Applications of a renormalization group based hybrid RANS/LES model329
  • Chapter 32. Application of zonal LES/ILES approaches to an unsteady complex geometry flow339
  • Chapter 33. Interface conditions for hybrid RANS/LES calculations349
  • Chapter 34. Approximate near-wall treatments based on zonal and hybrid RANS-LES methods for LES at h359
  • Chapter 35. LES, T-RANS and hybrid simulations of thermal convection at high RA numbers369
  • Part 5: Application of Turbulence Models379
  • Chapter 36. Industrial practice in turbulence modelling: An evaluation of QNET-CFD381
  • Chapter 37. Three-dimensional flow computation with Reynolds stress and algebraic stress models389
  • Chapter 38. Comparison of turbulence models in case of jet in crossflow using commercial CFD code399
  • Part 6: Experimental Techniques and Studies409
  • Chapter 39. Time resolved PIV measurements for validating LES of the turbulent flow within a PCB enc411
  • Chapter 40. Skin friction measurements in complex turbulent flows using direct methods421
  • Chapter 41. Reynolds number dependence of elementary vortices in turbulence431
  • Chapter 42. Near-wake turbulence properties in the high Reynolds incompressible flow around a circul441
  • Chapter 43. Single- and two-point LDA measurements in the turbulent near wake of a circular cylinder451
  • Chapter 44. Aerodynamics of a half-cylinder in ground effect461
  • Chapter 45. Turbulent wall jet interaction with a backward facing step471
  • Chapter 46. The role of pressure-velocity correlation in oscillatory flow between a pair of bluff bo481
  • Chapter 47. Turbulent structures in a supersonic jet-mixing layer interaction491
  • Chapter 48. Turbulent properties of twin circular free jets with various nozzle spacing501
  • Chapter 49. LDA-masurements of the turbulence in and around a venturi511
  • Part 7: Transition521
  • Chapter 50. Modelling of unsteady transition with a dynamic intermittency equation523
  • Chapter 51. Transition to turbulence and control in the incompressible flow around a NACA0012 wing533
  • Part 8: Turbulence Control543
  • Chapter 52. Some observations of the Coanda effect545
  • Chapter 53. Active control of turbulent separated flows by means of large scale vortex excitation555
  • Chapter 54. Large-eddy simulation of a controlled flow cavity565
  • Chapter 55. Parametric study of surfactant-induced drag-reduction by DNS575
  • Chapter 56. Effect of non-affine viscoelasticity on turbulence generation585
  • Chapter 57. Experimental and numerical investigation of flow control on bluff bodies by passive vent595
  • Part 9: Aerodynamic Flows605
  • Chapter 58. Application of Reynolds stress models to high-lift aerodynamics applications607
  • Chapter 59. Turbulence modelling in application to the vortex shedding of stalled airfoils617
  • Chapter 60. The computational modelling of wing-tip vortices and their near-field decay627
  • Chapter 61. URANS computations of shock induced oscillations over 2D rigid airfoil: Influence of tes637
  • Chapter 62. Zonal multi-domain RANS/LES simulation of airflow over the Ahmed body647
  • Chapter 63. Numerical simulation and experimental investigation of the side loading on a high speed657
  • Chapter 64. Large-scale instabilities in a STOVL upwash fountain667
  • Part 10: Aero-Acoustics677
  • Chapter 65. Direct numerical simulation of large-eddy-break-up devices in a boundary layer679
  • Chapter 66. Blade tip flow and noise prediction by large-eddy simulation in horizontal axis wind tur689
  • Chapter 67. A zonal RANS/LES approach for noise sources prediction699
  • Chapter 68. Aerodynamics and acoustic sources of the exhaust jet in a car air-conditioning system709
  • Chapter 69. Characterization of a separated turbulent boundary layer by time-frequency analyses of w719
  • Part 11: Turbomachinery Flows729
  • Chapter 70. Study of flow and mixing in a generic GT combustor using LES731
  • Chapter 71. An evaluation of turbulence models for the isothermal flow in a gas turbine combustion s741
  • Chapter 72. Large Eddy Simulations of heat and mass transfers in case of non isothermal blowing751
  • Chapter 73. Turbulence modelling and measurements in a rotor-stator system with throughflow761
  • Part 12: Heat and Mass Transfer771
  • Chapter 74. Impinging jet cooling of wall mounted cubes773
  • Chapter 75. Numerical and experimental study of turbulent processes and mixing in jet mixers783
  • Chapter 76. Effects of adverse pressure gradient on heat transfer mechanism in thermal boundary laye793
  • Chapter 77. Stochastic modelling of conjugate heat transfer in near-wall turbulence803
  • Chapter 78. Study of the effect of flow pulsation on the flow field and heat transfer over an inline813
  • Chapter 79. Large eddy simulation of scalar mixing823
  • Part 13: Combustion Systems833
  • Chapter 80. Experimental characterization and modelling of inflow conditions for a gas turbine swirl835
  • Chapter 81. On the sensitivity of a free annular swirling jet to the level of swirl and a pilot jet845
  • Chapter 82. Prediction of pressure oscillations in a premixed swirl combustor flow and comparison to855
  • Chapter 83. Interaction between thermoacoustic oscillations and spray combustion865
  • Chapter 84. Dynamics of lean premixed systems: Measurements for large eddy simulation875
  • Chapter 85. White in time scalar advection model as a tool for solving joint composition PDF equatio885
  • Chapter 86. The effects of micromixing on combustion extinction limits for micro combustor applicati895
  • Chapter 87. Joint RANS/LES approach to premixed flames modelling in the context of the TFC combustio905
  • Chapter 88. Optical observation and discrete vortex analysis of vortex-flame interaction in a plane915
  • Part 14: Two-Phase Flows927
  • Chapter 89. Simulation of mass-loading effects in gas-solid cyclone separators929
  • Chapter 90. On Euler/Euler Modeling of turbulent particle diffusion in dispersed two-phase flows939
  • Chapter 91. Influence of the gravity field on the turbulence seen by heavy discrete particles in an949
  • Chapter 92. Modelling turbulent collision rates of inertial particles959
  • Chapter 93. Large eddy simulation of the dispersion of solid particles and droplets in a turbulent b969
  • Chapter 94. Dynamic self-organization in particle-laden turbulent channel flow979
  • Author Index989
Book details
  • Vendor Elsevier S & T
  • SKU 9780080445441
  • ISBN-13 9780080530956
  • Author Rodi, Wolfgang
  • Category Technology & Engineering
  • Subject Materials Science

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Proceedings of the world renowned ERCOFTAC (International Symposium on Engineering Turbulence Modelling and Measurements).

The proceedings include papers dealing with the following areas of turbulence:

· Eddy-viscosity and second-order RANS models
· Direct and large-eddy simulations and deductions for conventional modelling
· Measurement and visualization techniques, experimental studies
· Turbulence control
· Transition and effects of curvature, rotation and buoyancy on turbulence
· Aero-acoustics
· Heat and mass transfer and chemically reacting flows
· Compressible flows, shock phenomena
· Two-phase flows
· Applications in aerospace engineering, turbomachinery and reciprocating engines, industrial aerodynamics and wind engineering, and selected chemical engineering problems

Turbulence remains one of the key issues in tackling engineering flow problems. These problems are solved more and more by CFD analysis, the reliability of which depends strongly on the performance of the turbulence models employed. Successful simulation of turbulence requires the understanding of the complex physical phenomena involved and suitable models for describing the turbulent momentum, heat and mass transfer. For the understanding of turbulence phenomena, experiments are indispensable, but they are equally important for providing data for the development and testing of turbulence models and hence for CFD software validation. As in other fields of Science, in the rapidly developing discipline of turbulence, swift progress can be achieved only by keeping up to date with recent advances all over the world and by exchanging ideas with colleagues active in related fields.