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100 Volumes of 'Notes on Numerical Fluid Mechanics' - 40 Years of Numerical Fluid Mechanics and Aerodynamics in Retrospect
Preface I
6
Preface II
9
Foreword of the Volumes’ Editors
11
Contents
12
Introduction
16
Some Historical Observations
16
Development of Computer Power and Algorithms
18
About Conceptions and Misconceptions
20
Future Developments and Needs
22
Scope and Content of the Volume
24
References
24
Part I The NNFM Series and its Origins
26
The NNFM Series
27
Introduction
27
The Aim of the Series
28
Evolution of the Series
29
The General Editors and the Co-Editors
30
And Last, But Not Least ...
32
The Origin of the Series in the GAMM-Committee for Numerical Methods in Fluid Mechanics
33
Introduction
33
The GAMM-Committee for Numerical Methods in Fluid Mechanics
34
The Book Series "Notes on Numerical Fluid Mechanics"
36
The GAMM-Conferences on Numerical Methods in Fluid Mechanics
37
GAMM-Workshops on Numerical Methods in Fluid Mechanics
39
References
40
The Environment of the Series in the Initial Phase
43
Introduction
43
Early Investigations
44
Spreading the News
46
The DFG-Priority Programs
48
The CNRS-DFG Venture
51
High Performance Computing
54
Concluding Remarks
57
References
57
German and EU High-Performance Computation Centers
59
Introduction
59
Historical Background
60
Foundation of Federal High-Performance Supercomputing Centers
61
Jülich Supercomputing Center of the Forschungszentrum (Research Center) Jülich
61
Höchstleistungsrechenzentrum Stuttgart, HLRS (High-Performance Supercomputing Center Stuttgart)
62
Höchstleistungsrechenzentrum Bayern, HLRB (High-Performance Supercomputing Center Bavaria)
63
Participation of Germany in European High-Performance Supercomputing
64
Development of High-Performance Supercomputing in Europe
66
The Gauß Center of Supercomputing, GCS
68
The Association PRACE: Partnership for Advanced Computing in Europe
69
Construction of a European Supercomputer Infrastructure
69
Concluding Remarks
70
References
70
Part II Co-Editors Forum: Selected Worldwide Developments
72
General Developments of Numerical Fluid Mechanics Until the Middle of the 20th Century
74
Introduction
74
From Antiquity to the Renaissance
75
The Enlightenment: the Age of Reason
77
Leonhard Euler
78
The 19th Century: Mathematical Fluid Mechanics
80
Vortex Discontinuities and Resistance
80
The Boundary Layer and Separation
82
Shock Waves
83
The 20th Century: The Computational Era
84
Early Methods
84
Methods to Solve the Euler Equations: 1950-1970
86
Time-Marching Technology
87
Treatment of Viscous Flows
88
References
88
Golden Age of French CFD in the 1970-80s: Aerodynamics with Finite Elements and the European Multi-Physics HERMES Program
90
Computational Fluid Dynamics
90
A First Multiphysics Challenge for CFD: the HERMES Program
92
Computational Mathematics and the Finite Element Method in Aerodynamics
94
Code Development in the German Aerospace Industry up to the Mid 1990s
97
Introduction
97
Potential Equation Codes
99
Panel Methods
99
Potential Equation Methods
100
Euler Codes
100
Boundary-Layer Methods
102
Navier-Stokes Codes
103
Towards the Common German MEGAFLOW System
105
References
106
Discontinuities in Compressible Flows: Italian Contributions
111
Introduction
111
Shock Fitting
113
Shock Capturing
114
Not Only Time Dependency, Compressibility or Shocks
115
Contributions from the Italian CFD Community
116
"Fitting" Contributions
116
"Capturing" Contributions
117
Conclusions
119
References
120
Flashback: 30 Years Numerical Fluid Mechanics and Aerodynamics in Japan, other Asian Countries and the Western Pacific Rim
121
Asian Contribution from a Statistical View Point
122
CFD History in Asia, Mainly in Japan
123
Early 1980s
123
Mid 1980s – Early 1990s
124
Mid 1990s – Early 2000s
125
Early 2000s – Present
126
Final Remarks
126
References
127
Computational Fluid Mechanics in Russia
128
Organization of Scientific Research in Computational Hydromechanics and Aerodynamics
128
Problems and Methods of Computational Hydromechanics and Aerodynamics
131
Developments in the Theory of Difference Schemes for Hydroaerodynamics
132
Development of Splitting Methods for Difference Schemes of Hydroaerodynamics
133
Development of High-Order Difference Methods
134
Irregular Grids (Curvilinear, Moving)
135
The Particle-in-Cell (PIC) Method
136
Solution Methods for Navier–Stokes Equations
137
Software Packages, Computer Systems
139
References
140
CFD Developments in the Northern European Countries
143
Developments in Sweden
143
DNS Code for Studying Wall-Bounded Turbulent BoundaryLayers
144
CFD for Ship Flows
144
Aerospace CFD Applications
145
Numerical Weather Prediction
146
Developments in Norway
147
Developments in Denmark - Wind Turbine Aerodynamics
149
{\sf EllipSys3D} Code
150
Developments in Finland
150
{\sf FINFLO} Code
151
References
153
Some Developments in Computational Aerodynamics in the UK
154
Introduction
154
Contributions to Methods for Dealing with Complex Aerodynamic Configurations
155
The Multi–Block Method
156
Unstructured Grid Methods
157
Contributions to CFD Based on the Navier Stokes Equations
159
References
163
The Development of Numerical Fluid Mechanics and Aerodynamics since the 1960s: US and Canada
168
The Dawn of Modern CFD
168
The Starting Position, 40 Years Ago
168
The Birth of High-Resolution Schemes
169
Computational Aerodynamics in the 1970s
171
The Heyday of CFD: 1980-1998
173
Impact of High-Resolution Schemes
173
Emphasis on Grids, Parallel Computing, and More
178
Latest Developments
182
CFD in Canada
185
Concluding Remarks
186
References
186
Part III Current Applications of Numerical Methods in Fluid Mechanics/Aerodynamics
195
European Numerical Aerodynamics Simulation Systems
197
Introduction
197
France
198
Germany
201
Italy
203
The Netherlands
206
Sweden
208
United Kingdom
210
References
212
Numerical Aerodynamics in Transport Aircraft Design
217
Introduction
217
The Design Task
218
Aerodynamic Analysis of Flight
224
Problem Diagnosis
225
Conclusion
226
References
227
Numerical Aerothermodynamic Design in the European Space Industry
229
Introduction
229
Particular Requirements on Physical Modelling
231
Particular Requirements on Numerical Methods
232
Presentation of Selected Results
232
Non-Winged Space Vehicles
233
Winged Space Vehicles.
234
References
237
The Second International Vortex Flow Experiment (VFE-2): Status 2007
239
Introduction
239
Test Configuration
240
Program of Work
240
Results
241
Outlook
246
References
246
Large-Eddy Simulations of Flow Problems of Aeronautical Industry
249
Introduction
249
LES Solutions
251
Ahmed Body Car Model
251
Film Cooling
253
Coaxial Jet
254
Reacting Flow in a Combustion Chamber
257
Ignition Process in a Full Combustion Chamber
259
Conclusion
261
References
261
Issues of Multidisciplinary Design
263
Introduction
263
Cayley’s Design Paradigm and its Weakening
265
Ideal-Typical Airframe Definition and Development
267
Challenges
270
Mathematical/Numerical Product Models
270
Flow-Physics and Structure-Physics Models
270
The Product-Knowledge Problem
271
Implementation and Acceptance at Industry
271
Fluid Structure Interaction as Important Element of MSDO
272
Conclusion
276
References
276
Evolutionary Optimisation Methods with Uncertainty for Modern Multidisciplinary Design in Aeronautical Engineering
279
Introduction
279
Methodology
280
Analysis and Formulation of Problem
281
Real World Design Problems
284
Multi-objective Design Optimisation of a J-UCAV
284
Uncertainty Based MDO of the J-UCAV
287
Conclusions
291
References
292
CFD Application in Automotive Industry
293
Introduction
293
Vehicle Aerodynamics
294
Thermal Management and Cabin Environment
296
Internal Combustion Engine
299
Aeroacoustics
301
References
302
Part IV Applications to Flow Problems in Engineering and Physics
304
Performance Upgrading of Hydraulic Machinery with the Help of CFD
306
Modernization of Old Hydro Electric Power Stations
306
Analysis of Turbine Components
308
Preliminary Design of a New Runner
309
Analysis of the Existing (Old) Runner
310
Optimization of the New Runner
313
Parametric Runner Design
315
Conclusion
316
References
317
Calculating Blast Loads for Civil Engineering Structures
318
Introduction
318
Physics
319
Numerics
320
Fluxes and Limiters
321
Engineering
325
Initiation From Detailed 1-D/2-D/Axisymmetric Runs
325
Successive Interpolation
325
Examples
325
Nairobi, Kenya:
326
Market Square:
326
Financial Center:
326
Conclusions and Outlook
327
Acknowledgements
329
References
329
Numerical Modelling of Technical Combustion
332
Introduction
332
Strategies for Numerical Simulation of Combustion
333
Calculation of the Flow Field
333
Modelling of Chemical Reactions
334
Some Basic Properties
335
Numerical Simulation of Combustion
337
RANS-Modelling
338
Modelling Using PDF-Transport Equations
341
LES-Modelling
342
DNS-Modelling
344
References
345
Kinetic Modeling and Simulation of Environmental and Civil Engineering Flow Problems
348
Introduction
348
A Short Introduction to Lattice-Boltzmann Modelling of Navier-Stokes Problems
349
Extensions of LBM for Coupled Problems
350
Turbulent Flows
350
Multiphase Flows in Porous Media
351
Free Surface Flows and Fluid-Structure-Interaction
352
Thermal Flows
353
Conclusion and Outlook
353
References
354
CFD in Process Engineering
358
Introduction
358
Modelling Complex Fluids
359
Top-Down and Bottom-Up Approach
360
Simulation in MOVPE Reactor Design
361
Applications of LBM
363
Conclusion
365
References
365
Computational Electromagnetics
367
Background
367
Maxwell Equations in the Time Domain
368
Current Status of CEM
372
Concluding Remarks
376
References
377
Computer Modelling of Magnetically Confined Plasmas
379
Introduction
379
Early Modelling Efforts
381
Emerging Fields of the 1980s
382
On the Way to a Numerical Tokamak
385
Future Trends
389
References
391
Frontiers in Computational Geophysics: Simulations of Mantle Circulation, Plate Tectonics and Seismic Wave Propagation
392
Introduction
392
Mantle Flow and Circulation Modelling
393
Plate Tectonics and Boundary Forces
396
Seismic Wave Propagation
399
References
399
Solar System Plasmadynamics and Space Weather
403
Introduction
403
Modelling the Solar Wind
404
The Governing Equations
404
Resolving Disparate Scales
406
Parallel Performance
406
A Space-Weather Modeling Framework
408
Representative Results of the Coupled Model
409
Concluding Remarks
410
References
412
Numerical Fluid Dynamics in Astrophysics
413
Newtonian Flows
413
Flows in Cosmological Structure Formation
414
Thermonuclear Supernova Explosions
418
Relativistic Flows
420
Special Relativistic Flows
420
General Relativistic Flows
421
Concluding Remarks
423
References
424
Part V Algorithms, Computer Science and Computers
425
Multigrid Software for Industrial Applications - From MG00 to SAMG
427
Introduction and Historical Remarks
427
The Beginning: Optimal Multigrid
428
Making Compromises: Multigrid Acceleration
430
The Idea of Robust Multigrid: Towards AMG
431
Algebraic Multigrid (AMG)
432
Algebraic Versus Geometric Multigrid
432
AMG for Scalar Partial Differential Equations
432
AMG for Systems of PDEs
433
Function-Based (or Unknown-Based) AMG
434
Point-Based AMG: A General Framework
434
Linear Solver Libraries Based on Multigrid
435
Industrial Applications
435
Outlook
437
References
438
Computer Science and Numerical Fluid Mechanics – An Essential Cooperation
441
Introduction
441
Memory Management for Adaptive Space-Tree Grids Based on Stacks
444
Fluid-Structure Interaction
448
Conclusion
452
References
452
Commercial CFD in the Service of Industry: The First 25 Years
455
Introduction
455
Brief History and Background
456
The First 10 Years
456
The 1990’s
457
The Present
458
The Next Phase
459
Geometry Creation and Mesh Generation
460
Numerical Methods
461
Physical Models
462
Other Advanced Technologies
463
Concluding Remarks
464
References
464
High Performance Computing in Academia and Industry - An Example for a Private Public Partnership in HPC
466
Introduction
466
Dual Use: Academia and Industry
467
Potential Advantages
468
A Public Private Partnership Approach
468
Prerequisites and Problems
470
Mode of Operation
470
Discussion of Results
471
Future
472
Requests From Industry
472
Know-How Transfer
473
Access to Resources
473
Visualization
474
Conclusion
474
References
474
Computer Hardware Development as a Basis for Numerical Simulation
476
Computer Organization: The von Neumann Concept and Alternatives
476
Semiconductor Technology, Moore’s Law, Instruction Level Parallelism and Multi-Core Technology
477
Energy Efficiency as New Optimizing Target
481
High Performance Computer Systems for Numerical Simulation
482
References
483
Petaflops Computers and Beyond
484
Technical Progress for 20 Years Since the 1980s
484
Technical Challenges and Emerging Technologies for Petaflops Computers and Beyond
486
Technical Challenges in Hardware
486
Trends of Semiconductor Technology
486
Trends of Interconnection Technology
488
Technical Challenges of Application Development
489
Petaflops Projects
491
DARPA High Productivity Computing System (HPCS)
491
The Next Generation Supercomputer Project in Japan
492
References
493
Part VI Appendix
494
List of NNFM Volumes
495
Forerunner Volumes
495
NNFM Volumes from No. 1 to No. 100
496
New Volumes
504
Forthcoming Volumes
505
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