Zum Hauptinhalt springen
Nicht aus der Schweiz? Besuchen Sie lehmanns.de
Large Rivers -

Large Rivers

Geomorphology and Management

Avijit Gupta (Herausgeber)

Buch | Hardcover
712 Seiten
2008
John Wiley & Sons Inc (Verlag)
978-0-470-84987-3 (ISBN)
CHF 379,95 inkl. MwSt
zur Neuauflage
  • Titel erscheint in neuer Auflage
  • Artikel merken
Zu diesem Artikel existiert eine Nachauflage
Despite the fact that a very large proportion of the world's population lives in the basins of large rivers, there is very little information that is easily available on the world's large rivers: the Amazon, the Mississippi, the Nile, the Congo, and the Indus, to name a few.
Large Rivers: Geomorphology and Management explores an important topic in geomorphology and sedimentology: the form and function of major rivers. Our knowledge of the big rivers of the world is limited. It is currently difficult to recognise large rivers of the past from relict sedimentary deposits or to structure management policies for long international rivers.  This exciting book brings together a set of papers on large rivers of the world, as a unique introduction to a demanding subject. The book includes thirty chapters and is organised into three sections. The first part is on the environmental requirements for creating and maintaining a major river system. The second is a collection of case studies on 14 large rivers from different continents, covering a range of physical environments. The third section includes chapters on the measurement and management of large rivers. 



First book to offer in a single volume state-of-the-art knowledge on management and geomorphology of large rivers of the world
A pioneering study, pushing the boundaries of our knowledge related to big rivers
Includes comprehensive case studies covering the major large rivers of the world including Amazon, Mississippi, Nile, Congo, Indus, and Mekong
Written by a leading team of distinguished, international contributors

Large Rivers: Geomorphology and Management is essential reading for postgraduate students and researchers in fluvial geomorphology, hydrology, sedimentary geology, and river management. It is also of relevance to engineers and environmental consultants in the private and public sectors working on major rivers of the world.

Avijit Gupta, School of Geography, University of Leeds, UK, and Visiting Scientist, Centre for Remote Imaging, Sensing and Processing, National University of Singapore.

Preface xvii

List of Contributors xix

1 Introduction 1
Avijit Gupta

1.1 A Book on Large Rivers 1

1.2 What is a Large River? 2

1.3 The Book and its Content 2

References 4

Part I: Background

2 Geology of Large River Systems 7
Sampat K. Tandon and Rajiv Sinha

2.1 Introduction 7

2.2 Tectonic Settings of Large River Systems 8

2.2.1 Rivers in Continental Collision Belts 9

2.2.2 Rivers in Rift Settings 10

2.2.3 Rivers in Cratonic Settings 10

2.3 Complexity of Drainage Types 11

2.4 Large Rivers – Climatic Settings and Climatic Variability 13

2.5 Modern Large Rivers – Hydrology and Sediment Dispersal 15

2.6 Variability in the Alluvial Architecture of Large River Systems 17

2.6.1 Longitudinal Trunk Systems 18

2.6.2 Radial Fans 20

2.6.3 Fan–Interfan Setting 20

2.6.4 Interfluves 20

2.7 Growth and Development of Large River Systems 21

2.8 Duration of Large River Systems and the Rock Record 22

2.9 Sea Level, Tectonic and Climatic Controls on the Large River Systems 22

2.10 Concluding Remarks 24

Acknowledgements 25

References 25

3 Hydrology and Discharge 29
Ellen E. Wohl

3.1 Hydrology of Large River Basins 29

3.2 Large Rivers of the Equatorial Regions 32

3.2.1 Amazon River 32

3.2.2 Congo River 35

3.2.3 Zambezi River 35

3.3 Large Rivers of the Drylands 35

3.3.1 Nile River 35

3.3.2 Indus River 36

3.3.3 Colorado River 36

3.3.4 Murray-Darling River 36

3.4 Rivers of the Mid-latitudes 37

3.4.1 Mississippi River 37

3.4.2 Danube River 37

3.5 Rivers Draining South from the Himalaya 37

3.5.1 Ganga River 38

3.5.2 Brahmaputra River 38

3.6 Rivers of East and Southeast Asia 38

3.6.1 Huanghe 38

3.6.2 Changjiang 39

3.6.3 Mekong River 39

3.7 High-latitude Rivers 39

3.7.1 Ob, Yenisey and Lena Rivers 40

3.7.2 Mackenzie and Yukon Rivers 40

3.8 Summary 40

Acknowledgements 41

References 41

4 Transcontinental Moving and Storage: The Orinoco and Amazon Rivers Transfer the Andes to the Atlantic 45
Robert H. Meade

4.1 Introduction 45

4.2 Andean Sources and Alluvial Storage 45

4.3 Orinoco 47

4.4 Amazon 49

4.4.1 Setting 49

4.4.2 Storage and Remobilization of Floodplain Sediment 52

4.4.3 Sediment Storage in the Lowermost Amazon Valley 57

4.5 The Amazon Goes to Sea 57

4.6 Coda 59

Acknowledgements 60

References 60

5 Greatest Floods and Largest Rivers 65
Victor R. Baker

5.1 Introduction 65

5.2 Historical Background 65

5.3 Terrestrial Glacial Megafloods 66

5.3.1 Cordilleran Ice Sheet 66

5.3.2 Laurentide Ice Sheet 66

5.3.3 Eurasian Ice Sheets 68

5.3.4 Central Asian Mountains 70

5.4 Extraterrestrial Megafloods and Megarivers 71

5.5 Conclusion 72

References 72

6 Classification, Architecture, and Evolution of Large-River Deltas 75
Kazuaki Hori and Yoshiki Saito

6.1 Introduction 75

6.2 Definition of a Delta and Delta Components 77

6.3 Classification of Deltas 79

6.4 Morphology and Sediment 82

6.4.1 Morphology 82

6.4.2 Sediments and Sediment Facies 85

6.4.3 Sediment Accumulation Rates 86

6.5 Delta Evolution 87

6.5.1 Response to Holocene Sea-Level Change 87

6.5.2 Changes in the Course of a River Channel and of its Distributaries 88

6.5.3 Coastal Environment Change Related to Delta Progradation 90

6.6 Problems of Sediment Supply 90

6.6.1 Estimation of Past Sediment Discharge 90

6.6.2 Sediment Budgets in Deltas and Sediment Supply to the Oceans 91

6.7 Concluding Remarks 91

Acknowledgements 92

References 92

7 Sedimentology and Stratigraphy of Large River Deposits: Recognition in the Ancient Record, and Distinction from ‘Incised Valley Fills’ 97
Christopher R. Fielding

7.1 Introduction 97

7.2 Sedimentology and Stratigraphy of Modern Big Rivers 100

7.3 Sedimentology and Stratigraphy of Ancient Big Rivers 103

7.4 Discussion: Ancient Big River Deposits vs ‘Incised Valley Fills’ 105

7.5 Conclusion 107

Acknowledgements 108

References 108

Part II: Case Studies

8 Effects of Tectonism, Climate Change, and Sea-level Change on the Form and Behaviour of the Modern Amazon River and its Floodplain 115
Leal A.K. Mertes and Thomas Dunne

8.1 Background 115

8.2 Amazon Basin Characteristics 116

8.3 Lithologic and Tectonic Influences on the Modern Amazon 117

8.3.1 First-Order Basin-Scale Influences 117

8.3.2 Second-Order Transverse Structures 121

8.3.3 Fracture Patterns 121

8.3.4 Structural Influences on Amazon River Geomorphology 125

8.4 Influence of Climate Change on the Amazon River 132

8.5 Influence of Sea-Level Changes on the Amazon River and Floodplain 135

8.6 Conclusion 139

Acknowledgements 140

References 140

9 The Mississippi River System 145
James C. Knox

9.1 Introduction 145

9.2 Cenozoic Drainage Evolution 145

9.3 Influence of Quaternary Glaciations 148

9.4 Proglacial Lakes and Extreme Floods 150

9.5 Response of the Lower Mississippi Valley to Upper Valley Glaciation and Flooding 151

9.6 The Mississippi River System during the Holocene 153

9.6.1 Climate and Vegetation Changes 153

9.6.2 Holocene Alluvial Episodes 156

9.6.3 Holocene Flood Episodes in the Upper Mississippi Valley 156

9.6.4 Lower Valley Alluvial Responses to Upper Valley Holocene Environmental Change 160

9.7 Morphology of the Mississippi River 162

9.7.1 Upper Mississippi River 162

9.7.2 Lower Mississippi River 165

9.8 Modern Hydrology 167

9.8.1 Climate, Runoff, and Floods 167

9.8.2 Dams: Flow Modification and Sediment Storage 171

9.9 The Mississippi River System: Summary and Outlook 174

Acknowledgments 177

References 177

10 The Colorado River 183
John C. Schmidt

10.1 Introduction 183

10.2 Physiography 186

10.2.1 Description of the Green and Colorado Rivers, from Headwaters to the Sea 187

10.3 Age of the River 189

10.4 Gradient, Valley Width, and Channel Form in the Colorado Plateau 191

10.5 Hydrology: Pre-dam 193

10.6 Hydrology: Post-dam 196

10.6.1 Upper Basin 197

10.6.2 Lower Basin 198

10.7 Pre-Dam and Post-Dam Sediment Yield and Sediment Transport 200

10.8 Channel Adjustment and Change During the Twentieth Century 203

10.8.1 The Delta 204

10.8.2 The Imperial Valley and Salton Sea 206

10.8.3 The Lower River 208

10.8.4 The River System within the Colorado Plateau 209

10.9 Implications of Hydrology, Sediment Transport, Channel Change, and Temperature to the Endemic Fishery 211

10.10 Environmental Management of the Modern River 215

10.10.1 The Glen Canyon Dam Adaptive Management Program 215

10.10.2 Opportunities for Recovery of the Delta Ecosystem 217

10.11 The Future 217

10.11.1 The Delta and Lower River 217

10.11.2 The Grand Canyon Ecosystem 217

10.11.3 The Upper Basin 219

10.12 Conclusion 219

References 219

11 The Lena River: Hydromorphodynamic Features in a Deep Permafrost Zone 225
François Costard and Emmanuèle Gautier

11.1 Introduction 225

11.2 Description of the Lena Drainage Basin 225

11.3 A Periglacial Environment 227

11.4 Floodplain, Delta and Periglacial Landforms 227

11.5 Fluvial Dynamics and Landforms 227

11.6 Thermal Erosion and its Impact on the Fluvial Forms 231

11.7 Impact of Climatic Change on the Hydrosystem 232

11.8 Conclusion 232

References 232

12 The Danube: Morphology, Evolution and Environmental Issues 235
Dénes Lóczy

12.1 Introduction 235

12.2 Water and Sediment 235

12.3 Headwaters of the Danube 238

12.4 The Danube: a Description 239

12.4.1 The Upper Danube in Germany and Austria 239

12.4.2 The Middle Danube (Slovakia, Hungary and Serbia) 241

12.4.3 The Lower Danube (Romania, Bulgaria and Ukraine) 242

12.5 The Danube Delta 242

12.5.1 Delta Habitats and Environmental Problems 243

12.6 The Evolution of the Valley of the Danube 245

12.6.1 The Upper Section 245

12.6.2 The Middle Section 251

12.6.3 The Lower Section 253

12.6.4 The Delta 254

12.7 Human Impacts 254

12.7.1 A Brief History of Channelization 254

12.7.2 The Rhine–Main–Danube Canal 256

12.7.3 A Recent Example of Damming the Danube: the Gabcíkovo Barrage in Slovakia 256

12.7.4 Pollution 256

12.7.5 How Much is the Danube Worth? 257

References 257

13 The Nile: Evolution, Quaternary River Environments and Material Fluxes 261
Jamie C. Woodward, Mark G. Macklin, Michael D. Krom and Martin A. J. Williams

13.1 Introduction 261

13.2 Nile Basin River Environments 263

13.3 Early Origins and the Late Miocene and Pliocene Nile 265

13.3.1 The Late Miocene Nile Canyon in Egypt 265

13.3.2 The Integrated Nile 267

13.4 The Late Pleistocene and Holocene Nile 268

13.4.1 20 000 to 12 500 14 C Years BP 268

13.4.2 12 500 to 5000 14 C Years BP 270

13.4.3 5000 14 C Years BP to Present 272

13.5 Records of Nile River Behaviour in the Eastern Mediterranean Sea 273

13.6 The Modern Nile: Hydrology and Geomorphology 274

13.6.1 The White Nile Basin 274

13.6.2 The Blue Nile and Atbara Basins 277

13.6.3 The Confluence Zone and the Desert Nile from Khartoum to the Mediterranean 278

13.7 The Suspended Sediment Budget 279

13.7.1 Reservoir Sedimentation 281

13.7.2 Suspended Sediment Dynamics Downstream of the Aswan High Dam 283

13.8 The Nile Delta and the Eastern Mediterranean 284

13.8.1 The Delta and Coastal Zone 284

13.8.2 Sediment Supply to the Eastern Mediterranean Sea 284

13.9 River Basin Management and Global Change 287

Acknowledgements 289

References 289

14 The Congo River, Central Africa 293
Jürgen Runge

14.1 Introduction 293

14.2 The Course of the Congo River 293

14.3 Geology and Geomorphology of the Congo Basin 299

14.3.1 The Central Congo Basin 299

14.3.2 The Asande Rise 301

14.3.3 The Atlantic Rise 301

14.3.4 The Angolan and Shaba Highland 302

14.3.5 The Western Rift Rise 302

14.4 Evolution of the Congo River 302

14.5 The Flow Regime of the Congo 303

14.6 Solid, Suspended, and Dissolved Load 303

14.7 The Congo Mouth and the Submarine Canyon 306

14.8 The Congo River and its Economic Importance 307

14.9 Conclusion 308

Acknowledgements 308

References 308

15 The Zambezi River 311
Andy E. Moore, Fenton P.D. (Woody) Cotterill, Mike P.L. Main and Hugh B. Williams

15.1 Introduction 311

15.2 The Zambezi River System 313

15.3 Hydrology 317

15.4 Ecological Impact of Major Dams 320

15.5 Evolution of the Zambezi River System 321

15.6 Drainage Evolution and Speciation 328

15.7 Cultural and Economic Aspects 330

15.8 Conclusion 330

Acknowledgements 331

References 331

16 The Geographic, Geological and Oceanographic Setting of the Indus River 333
Asif Inam, Peter D. Clift, Liviu Giosan, Ali Rashid Tabrez, Muhammad Tahir, Muhammad Moazam Rabbani and Muhammad Danish

16.1 Introduction 333

16.2 The Drainage Basin 334

16.2.1 Geology 334

16.2.2 Hydrology 334

16.3 The River 335

16.4 Evolution of the Indus River 335

16.5 The Indus Delta 336

16.6 Submarine Indus System 338

16.7 Water Management 339

16.8 The Indus Dolphins 341

16.9 Environmental Changes 342

16.10 Human-Induced Changes in the Indus Delta 342

16.11 Conclusion 344

References 345

17 The Ganga River 347
Indra B. Singh

17.1 Introduction 347

17.2 Hydrology 347

17.3 Water Quality 353

17.4 Sediment Transfer in the Ganga 353

17.4.1 Dissolved Load 353

17.4.2 Suspended Load and Bed Load 353

17.5 Mineralogy and Geochemistry of Sediments 355

17.6 Heavy Metals and Pollutants in the Sediment 356

17.7 The Plain and the River 356

17.8 The Delta 362

17.9 A Summary of Current Geomorphic Processes 365

17.10 Quaternary Evolution of the Ganga 366

17.11 Utilization of the River and Associated Problems 367

Acknowledgements 368

References 368

18 Erosion and Weathering in the Brahmaputra River System 373
Sunil K. Singh

18.1 Introduction 373

18.2 The Brahmaputra River System 373

18.3 Geology of the Basin 375

18.4 Hydrology 377

18.5 Floods in the Brahmaputra 378

18.6 Characteristics of the Brahmaputra Channel 381

18.7 Erosion and Weathering 382

18.8 Sediment Yield or Erosion Rates in the Various Zones 386

18.9 Chemical Weathering and Erosion 386

18.9.1 Water Chemistry 387

18.9.2 Silicate Weathering 388

18.10 Bed Load and Weathering Intensity 389

18.11 Control of Physical and Chemical Erosion in the Brahmaputra Basin 389

18.12 Conclusion 391

References 391

19 The Brahmaputra-Jamuna River, Bangladesh 395
James L. Best, Philip J. Ashworth, Maminul H. Sarker and Julie E. Roden

19.1 Background 395

19.1.1 The River 395

19.1.2 Basinal Setting and Controls on Sedimentation 397

19.1.3 Hydrology, Sediment Yield and Channel Size 398

19.2 Channel Scale Morphology and Historical Changes in the Course of the Brahmaputra-Jamuna River 399

19.3 Bedform Types and Dynamics 405

19.3.1 Small-Scale Bedforms (ripples, dunes and upper-stage plane beds) 405

19.3.2 Large-Scale Bedforms (bars and bar complexes) 407

19.4 Bifurcations, Offtakes and Confluences 413

19.5 Floodplain Sedimentation 414

19.6 Sedimentology of the Jamuna River 418

19.7 Applied Geomorphology and Engineering in the Jamuna River 423

19.8 Summary 427

Acknowledgements 429

References 430

20 The Mekong River: Morphology, Evolution, Management 435
Avijit Gupta

20.1 Introduction 435

20.2 The Mekong Basin 437

20.2.1 Geology 437

20.2.2 Relief 437

20.2.3 Hydrology 439

20.2.4 Land Use 440

20.3 The River 443

20.4 The Mekong Over Time: The Geomorphic History 449

20.5 Erosion and Sediment Transfer 450

20.6 The Mekong and its Basin: Resource and Management 451

20.7 Conclusion 453

Acknowledgements 453

References 453

21 Dynamic Hydrology and Geomorphology of the Yangtze River 457
Zhongyuan Chen, Kaiqin Xu and Masataka Watanabe

21.1 Basin Geology and Landforms 457

21.2 River Morphology 460

21.3 Storage and Transfer of Water and Sediment 460

21.3.1 Discharge and Flood Patterns 460

21.3.2 Sediment Flux in the Yangtze: A Decreasing Trend over the Last 40 Years 462

21.3.3 Three Gorges Area: A New Sediment Provenance and a Depleted Valley 463

21.3.4 Middle Yangtze: Sediment Sources and Sinks 463

21.3.5 The Lower Yangtze: Transfer of Sediment 466

21.3.6 The Yangtze Estuary: A Major Sediment Sink 466

21.4 Large-scale River Management – Three Gorges Dam and the Planned Water Transfer 467

Acknowledgements 468

References 468

Part III: Measurement and Management

22 The Nile River: Geology, Hydrology, Hydraulic Society 471
M. Gordon Wolman and Robert F. Giegengack

22.1 Introduction 471

22.2 Physiography 471

22.2.1 The Lake District 472

22.2.2 The Lowlands of Southern Sudan 472

22.2.3 The Ethiopian Tableland 472

22.2.4 The Cataract Reach 474

22.2.5 The Alluvial Nile 475

22.3 Geologic History 475

22.3.1 White Nile: Uganda, Kenya, Sudan 475

22.3.2 Egypt 476

22.3.3 The Blue Nile and the Atbara: Ethiopia 477

22.4 Climate and Climate Change 477

22.4.1 Introduction 477

22.4.2 The Region 479

22.5 Hydrology 481

22.5.1 Introduction 481

22.5.2 The White Nile 482

22.5.3 The Blue Nile 483

22.5.4 The Nile below Khartoum 483

22.5.5 The Nile Flows in Egypt 484

22.6 A Unique Record 484

22.7 The Nile and Hydraulic Civilizations 485

Acknowledgements 489

References 489

23 Patterns and Controls on Historical Channel Change in the Willamette River, Oregon, USA 491
Jennifer Rose Wallick, Gordon E. Grant, Stephen T. Lancaster, John P. Bolte and Roger P. Denlinger

23.1 Introduction 491

23.2 An Approach for Interpreting Multiple Impacts on Large Rivers 493

23.3 Geologic Setting, Human and Flood History of the Willamette 495

23.3.1 Watershed Physiography and Climate 495

23.3.2 Geological Setting of the Willamette in Relation to Channel Stability 495

23.3.3 Study Length Delineation 497

23.3.4 Timeline and Consequences of Euro-American Interaction with Willamette River 498

23.3.5 Flood History of the Willamette River 500

23.4 Data and Methods for Measuring Historical Channel Change 501

23.4.1 Historical Channel Maps 501

23.4.2 Measuring Rates and Styles of Channel Change 502

23.4.3 Development of a Two-Dimensional Flood Model for Willamette River 503

23.5 Results: Patterns and Controls on Historical Channel Changes 503

23.5.1 McKenzie Reach, 1850–1995 503

23.5.2 Long Tom Reach, 1850–1995 506

23.5.3 Santiam Reach, 1850–1995 506

23.5.4 Summary of Willamette River Channel Change, 1850–1995 506

23.5.5 Flood Model Results 507

23.6 Discussion, Narrative of Historical Channel Change 507

23.6.1 Interpreting Historical Channel Change, 1850–1995 508

23.6.2 Extending Lessons learned on the Willamette to Other Large Rivers 511

23.7 Conclusion 513

Acknowledgements 514

References 514

24 Rivers And Humans – Unintended Consequences 517
Stanley A. Schumm

24.1 Introduction 517

24.2 Armour 517

24.2.1 Missouri River 517

24.2.2 River Nile 518

24.2.3 Mississippi River 521

24.3 Hydrology 524

24.3.1 Platte River 524

24.3.2 Niobrara River 530

24.3.3 Middle Mississippi River 530

24.4 Conclusion 532

References 532

25 Large Rivers from Space 535
Leal A.K. Mertes and T. Tamuka Magadzire

25.1 Introduction 535

25.2 Basin Characteristics 536

25.3 Valley Configuration 537

25.4 Geomorphology 539

25.5 Water-Surface Elevation, Gradient and Discharge 542

25.6 Water Extent and Inundation Mapping 542

25.7 Mapping Sediment Concentration 542

25.8 Zambezi River – Water Type Mapping on Floodplains 546

25.9 Thermal Properties 546

25.10 Change Detection 548

25.10.1 Mesopotamian Marshlands 548

References 550

26 Channel Geometry Analysis Technique for the Lower Mississippi River 553
Philip J. Soar, Colin R. Thorne, Oliver P. Harmar, David S. Biedenharn and C. Fred Pinkard

26.1 Introduction 553

26.2 Context 554

26.2.1 Lower Mississippi River Channel Geometry 554

26.3 Data Acquisition and Pre-Processing 556

26.3.1 Pilot Study Reach 556

26.3.2 Low Water Reference Plane 556

26.3.3 Separation of Bends and Crossings 557

26.3.4 Divided Channels 557

26.3.5 Pre-Processing Procedure for Hydrographic Survey Files 558

26.3.6 Data Projection 559

26.3.7 Cross-Section Screening 559

26.4 Analytical Approach and Methodology 560

26.4.1 Channel Geometry Analysis 560

26.4.2 Probability Analysis 561

26.4.3 Spatial Analysis 561

26.4.4 Temporal Analysis 563

26.5 Results 563

26.5.1 At-a-station Channel Geometry 563

26.5.2 Spatial Variability and Adjustments 563

26.5.3 Temporal Variability and Adjustments 563

26.6 Interpretation and Commentary 563

26.6.1 Channel Geometry Analysis 563

26.6.2 Spatial Analysis 568

26.6.3 Temporal Analysis 568

26.7 Conclusion 569

Acknowledgements 569

References 569

27 The Management of Large Rivers: Technical and Political Challenges 571
Ian C. Campbell

27.1 Introduction 571

27.2 The Challenges of River Management 574

27.2.1 Technical Challenges 574

27.2.2 Political Challenges 576

27.2.3 Resources 579

27.2.4 Commitment and Political Influence 580

27.3 Management of Rivers in Developing Countries 581

27.3.1 Capacity 581

27.3.2 Need for Rapid Development 582

27.3.3 Lack of Inclusivity in Governance 582

27.3.4 Subsistence Use 582

27.4 Conclusion 583

References 583

28 The Physical Diversity and Assessment of a Large River System: The Murray-Darling Basin, Australia 587
Martin C. Thoms, Scott C. Rayburg and Melissa R. Neave

28.1 Introduction 587

28.2 The Murray-Darling Basin 588

28.3 The Science Challenge for Assessing Rivers in the Murray-Darling Basin 591

28.3.1 The Theory 591

28.3.2 Application 593

28.4 Assessing the Physical Condition of Rivers at the Catchment Scale 596

28.5 The Physical Condition of Rivers in the Murray-Darling Basin 598

28.5.1 Functional Process Zones 600

28.6 The Geography of Disturbance 603

28.7 Conclusion 604

Acknowledgements 605

References 605

29 Climatic and Anthropogenic Impacts on Water and Sediment Discharges from the Yangtze River (Changjiang), 1950–2005 609
Kehui Xu, John D. Milliman, Zuosheng Yang and Hui Xu

29.1 Introduction 609

29.2 Physical Setting 610

29.3 Data and Methods 611

29.4 Spatial Variations of Water and Sediment 611

29.5 Temporal Variations of Water and Sediment 613

29.5.1 Annual Variations 613

29.5.2 Monthly Variations 615

29.6 Discussion – Climatic and Anthropogenic Impacts 616

29.6.1 Climatic Impacts 616

29.6.2 Anthropogenic Impacts 619

29.7 Future Change and Coastal Responses 621

29.7.1 Water Discharge 621

29.7.2 Sediment Discharge 621

29.7.3 Coastal Responses 621

29.8 Climatic and Anthropogenic Impacts on Other Global Rivers – The Mississippi Example 622

29.9 Conclusion 622

Acknowledgements 624

References 624

30 Large River Systems and Climate Change 627
Michael D. Blum

30.1 Introduction 627

30.2 A Brief History of Ideas 627

30.3 Fluvial Response to Climate Change: Some General Concepts 631

30.3.1 Continental Interiors: Uplift, Subsidence, and Climate Change 634

30.3.2 Continental Margins: Importance of Relative Sea-Level Change 637

30.4 Fluvial Response to Past Climate Change: Contrasting Examples 638

30.4.1 The Colorado River in Grand Canyon, Western USA 638

30.4.2 The Ganga-Brahmaputra System, India and Bangladesh 643

30.4.3 The Lower Mississippi River, South-central USA 646

30.5 Epilogue: Large Rivers and Climate Change, Past to Future 649

References 656

Index 661

Erscheint lt. Verlag 1.2.2008
Verlagsort New York
Sprache englisch
Maße 196 x 249 mm
Gewicht 1565 g
Themenwelt Naturwissenschaften Geowissenschaften Geologie
ISBN-10 0-470-84987-8 / 0470849878
ISBN-13 978-0-470-84987-3 / 9780470849873
Zustand Neuware
Informationen gemäß Produktsicherheitsverordnung (GPSR)
Haben Sie eine Frage zum Produkt?
Mehr entdecken
aus dem Bereich
Baugruben und Gründungen

von Jürgen Schmitt; Ulrich Burbaum; Antje Bormann

Buch | Hardcover (2024)
Springer Vieweg (Verlag)
CHF 83,95