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100 Volumes of 'Notes on Numerical Fluid Mechanics' - 40 Years of Numerical Fluid Mechanics and Aerodynamics in Retrospect

of: Ernst Heinrich Hirschel, Egon Krause

Springer-Verlag, 2009

ISBN: 9783540708056 , 506 Pages

Format: PDF, Read online

Copy protection: DRM

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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