Runoff prediction in ungauged basins synthesis across processes, places and scales

"Predicting water runoff in ungauged water catchment areas is vital to practical applications such as the design of drainage infrastructure and flooding defences, runoff forecasting, and for catchment management tasks such as water allocation and climate impact analysis. This important new book...

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Weitere Verfasser: Blöschl, Günter 1961- (HerausgeberIn)
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Veröffentlicht: Cambridge Cambridge Univ. Press 2013
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Datensatz im Suchindex

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adam_text Titel: Runoff prediction in ungauged basins Autor: Blöschl, Günter Jahr: 2013 Contents List of contributors page ix 3 A data acquisition framework for runoff Foreword by Thomas Dunne xv prediction in ungauged basins 29 Preface xix 3.1 Why do we need data? 29 Abstract xxii 3.2 A hierarchy of data acquisition 30 3.2.1 Assessment based on global data sets 31 Introduction 1 3.2.2 Assessment based on national 1.1 Why we need runoff predictions 1 hydrological network and national surveys 31 1.2 Runoff predictions in ungauged basins 3.2.3 Assessment based on local field visits are difficult 3 including reading the landscape 32 1.3 Fragmentation in hydrology 4 3.2.4 Assessment based on dedicated 1.4 The Prediction in Ungauged Basins initiative: a measurements 34 response to the challenge of fragmentation 5 3.3 Runoff data 34 1.5 What this book aims to achieve: synthesis across 3.3.1 What runoff data are needed for PUB? 34 processes, places and scales 6 3.3.2 What runoff data are there? 35 1.5.1 Synthesis across processes 7 3.3.3 How valuable are runoff data for PUB? 36 1.5.2 Synthesis across places 8 3.4 Meteorological data and water balance 1.5.3 Synthesis across scales 8 components 36 1.6 How to read the book and what to get out of it 9 3.4.1 What meteorological data and water balance components are needed for A synthesis framework for runoff PUB? 36 prediction in ungauged basins 11 3.4.2 Precipitation 36 2.1 Catchments are complex systems 11 3.4.3 Snow cover data 39 2.1.1 Co-evolution of catchment 3.4.4 Potential evaporation 39 characteristics 11 3.4.5 Remotely sensed data for calculating 2.1.2 Signatures: a manifestation of actual evaporation 40 co-evolution 13 3.4.6 Remote sensing of soil moisture and 2.2 Comparative hydrology and the Darwinian basin storage 40 approach 15 3.5 Catchment characterisation 41 2.2.1 Generalisation through comparative 3.5.1 Topography 41 hydrology 15 3.5.2 Land cover and land use 41 2.2.2 Hydrological similarity 18 3.5.3 Soils and geology 42 2.2.3 Catchment grouping: exploiting the 3.6 Data on anthropogenic effects 43 similarity concept for PUB 20 3.7 Illustrative examples of hierarchical data 2.3 From comparative hydrology to predictions in acquisition 44 ungauged basins 22 3.7.1 Understanding process controls on runoff 2.3.1 Statistical methods of predictions in (Tenderfoot Creek, Montana, USA) 44 ungauged basins 22 3.7.2 Runoff predictions using rainfall-runoff 2.3.2 Process-based methods of predictions models (Chicken Creek, Germany) 47 in ungauged basins 23 3.7.3 Forensic analysis of magnitude and 2.4 Assessment of predictions in ungauged basins 23 causes of a flood (Selska Sora, Slovenia) 49 2.4.1 Comparative assessment as a means of 3.8 Summary of key points 51 synthesis 23 2.4.2 Performance measures 25 4 Process realism: flow paths and storage 53 2.4.3 Level 1 and Level 2 assessments 26 4.1 Predictions: right for the right reasons 53 2.5 Summary of key points 26 4.2 Process controls on flow paths and storage 55 Contents 4.3 Inference of flow paths and storage from 6.3.4 Runoff estimation from short records 121 response characteristics 57 6.4 Process-based methods of predicting seasonal 4.3.1 Inference from runoff 57 runoff in ungauged basins 123 4.3.2 Inference from tracers 59 6.4.1 Derived distribution methods 123 4.4 Estimating flow paths and storage in ungauged 6.4.2 Continuous models 124 basins 64 6.5 Comparative assessment 126 4.4.1 Distributed process-based models 64 6.5.1 Level 1 assessment 127 4.4.2 Index methods 64 6.5.2 Level 2 assessment 129 4.4.3 Methods based on proxy data 65 6.6 Summary of key points 134 4.5 Informing predictions of runoff in ungauged basins 66 7 Prediction of flow duration curves in 4.5.1 Process-based (rainfall-runoff) methods 67 ungauged basins 135 4.5.2 Statistical methods 67 7.1 For how long do we have water? 135 4.5.3 Role of field visits, reading the landscape, 7.2 Flow duration curves: processes and similarity 137 photos and other proxy data 68 7.2.1 Processes 138 4.5.4 Regional interpretation and similarity 68 7.2.2 Similarity measures 141 4.6 Summary of key points 69 7.2.3 Catchment grouping 145 7.3 Statistical methods of predicting flow duration Prediction of annual runoff in ungauged curves in ungauged basins 147 basins 70 7.3.1 Regression methods 148 5.1 How much water do we have? 70 7.3.2 Index flow methods 148 5.2 Annual runoff: processes and similarity 71 7.3.3 Geostatistical methods 151 5.2.1 Processes 72 7.3.4 Estimation from short records 152 5.2.2 Similarity measures 78 7.4 Process-based methods of predicting flow 5.2.3 Catchment grouping 79 duration curves in ungauged basins 153 5.3 Statistical methods of predicting annual runoff 7.4.1 Derived distribution methods 153 in ungauged basins 83 7.4.2 Continuous models 154 5.3.1 Regression methods 83 7.5 Comparative assessment 156 5.3.2 Index methods 84 7.5.1 Level 1 assessment 156 5.3.3 Geostatistics and proximity methods 88 7.5.2 Level 2 assessment 158 5.3.4 Estimation from short records 88 7.6 Summary of key points 162 5.4 Process-based methods of predicting annual runoff in ungauged basins 89 8 Prediction of low flows in ungauged basins 163 5.4.1 Derived distribution methods 89 8.1 How dry will it be? 163 5.4.2 Continuous models 90 8.2 Low flows: processes and similarity 164 5.4.3 Proxy data on annual runoff processes 91 8.2.1 Processes 164 5.5 Comparative assessment 92 8.2.2 Similarity measures 167 5.5.1 Level 1 assessment 92 8.2.3 Catchment grouping 170 5.5.2 Level 2 assessment 96 8.3 Statistical methods of predicting low flows in 5.6 Summary of key points 100 ungauged basins 172 8.3.1 Regression methods 172 Prediction of seasonal runoff in ungauged 8.3.2 Index low flow methods 175 basins 102 8.3.3 Geostatistical methods 176 6.1 When do we have water? 102 8.3.4 Estimation from short records 178 6.2 Seasonal runoff: processes and similarity 104 8.4 Process-based methods of predicting low 6.2.1 Processes 104 flows in ungauged basins 179 6.2.2 Similarity measures 111 8.4.1 Derived distribution methods 179 6.2.3 Catchment grouping 114 8.4.2 Continuous models 180 6.3 Statistical methods of predicting seasonal 8.4.3 Proxy data on low flow processes 180 runoff in ungauged basins 118 8.5 Comparative assessment 181 6.3.1 Regression methods 118 8.5.1 Level 1 assessment 182 6.3.2 Index methods 118 8.5.2 Level 2 assessment 184 6.3.3 Geostatistical and proximity methods 119 8.6 Summary of key points 188 Contents vii 9 Prediction of floods in ungauged basins 189 11 PUB in practice: case studies 270 9.1 How high will the flood be? 189 11.1 Predictions in Ungauged Basins in a societal 9.2 Floods: processes and similarity 190 context 270 9.2.1 Processes 191 11.2 Hydrological insights from long-term runoff 9.2.2 Similarity measures 196 patterns across Krishna Basin, India 272 9.2.3 Catchment grouping 200 11.3 Predicting mean annual runoff across 9.3 Statistical methods of predicting floods in Huangshui Basin, China 277 ungauged basins 203 11.4 An index approach to mapping annual 9.3.1 Regression methods 203 runoff in a Siberian catchment, Russia 280 9.3.2 Index flood methods 205 11.5 Predicting spatial patterns of inter-annual 9.3.3 Geostatistical methods 208 runoff variability in the Canadian Prairies 283 9.3.4 Estimation from short records 209 11.6 Seasonal flow prediction with uncertainty 9.4 Process-based methods of predicting floods in South Africa and Lesotho 289 in ungauged basins 211 11.7 Setting environmental flow targets in 9.4.1 Derived distribution methods 212 north-east USA 293 9.4.2 Continuous models 215 11.8 Continuous simulation of low flows for 9.4.3 Proxy data on flood processes 217 hydropower development in Ontario, Canada 297 9.5 Comparative assessment 219 11.9 Estimating flow duration curves for 9.5.1 Level 1 assessment 220 hydropower development in central Italy 300 9.5.2 Level 2 assessment 222 11.10 Implementing the EU flood directive in 9.6 Summary of key points 225 Austria 305 11.11 Revision of Australian Rainfall and Runoff 10 Prediction of runoff hydrographs in for improved flood predictions 309 ungauged basins 227 II.12 Understanding flow paths for hydrograph 10.1 What are the dynamics of runoff? 227 prediction in an Andean catchment, Chile 313 10.2 Runoff dynamics: processes and similarity 228 11.13 Frequency of runoff occurrence in ephemeral 10.2.1 Processes 229 catchments in France 317 10.2.2 Similarity measures 233 11.14 Overcoming data limitations for hydrograph 10.2.3 Catchment grouping 236 prediction, Luangwa Basin, Zambia 321 10.3 Statistical methods of predicting runoff 11.15 Remotely sensed lake levels to assist runoff hydrographs in ungauged basins 238 modelling in Ghana 328 10.3.1 Regression methods 238 11.16 Model enhancements for urban runoff 10.3.2 Index methods 238 predictions in the south-west USA 332 10.3.3 Geostatistical methods 239 11.17 Runoff predictions to help meet Millennium 10.4 Process-based methods of predicting runoff Development Goals in Zimbabwe 337 hydrographs in ungauged basins 240 11.18 Runoff predictions in support of the National 10.4.1 Structure of rainfall-runoff models Water Audit, Australia 345 for ungauged basins 241 11.19 Distributed runoff predictions in the Mekong 10.4.2 Parameters of rainfall-runoff River basin 349 models in ungauged basins: 11.20 Implementing the EU Water Framework overview 246 Directive in Sweden 353 10.4.3 A-priori estimation of model 11.21 Summary of key points 360 parameters 247 10.4.4 Transfer of calibrated model 12 Outcomes of synthesis 361 parameters from gauged 12.1 Learning from synthesis 361 catchments 251 12.2 Synthesis across processes, places and scales 363 10.4.5 Constraining model parameters 12.2.1 Synthesis across processes 363 by dynamic proxy data and 12.2.2 Synthesis across places 367 runoff 256 12.2.3 Synthesis across scales 369 10.5 Comparative assessment 262 12.2.4 Inter-comparison of methods 371 10.5.1 Level 1 assessment 263 12.3 Synthesis of Newtonian and Darwinian 10.5.2 Level 2 assessment 266 frameworks 374 10.6 Summary of key points 268 12.3.1 Evidence for co-evolution 374 viii Contents 12.3.2 Comparative hydrology and the 13.2.1 Viewing catchments as complex Newtonian-Darwinian synthesis 376 systems 385 12.3.3 A new unified uncertainty framework 13.2.2 Comparative hydrology to detect for PUB 379 co-evolution patterns 385 12.4 Synthesis and the science community 381 13.2.3 Newtonian-Darwinian synthesis 385 12.4.1 Accumulation of knowledge in the 13.2.4 The globe is our laboratory 385 hydrological sciences 381 13.3 Organising the hydrology community to 12.4.2 Role of the community 382 advance science and predictions 385 13.3.1 Capacity building 385 13 Recommendations 384 13.3.2 Collaborative endeavour 386 13.1 Advancing runoff predictions in ungauged 13.3.3 Knowledge accumulation 386 basins 384 13.3.4 Hydrology, a global science 386 13.1.1 Understanding as the key to better 13.4 Best practice recommendations for predictions 384 predicting runoff in ungauged basins 386 13.1.2 Exploiting runoff signatures and linking them 384 Appendix: Summary of studies used in the 13.1.3 Addressing uncertainty from a process comparative assessments 388 perspective 384 References 415 13.1.4 Data availability and predictions 385 Index 463 13.2 Advancing hydrological science globally via PUB 385
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spellingShingle Runoff prediction in ungauged basins synthesis across processes, places and scales
SCIENCE / Earth Sciences / Hydrology bisacsh
Geowissenschaften
Mathematisches Modell
Runoff
Rain and rainfall
Runoff Mathematical models
Rain and rainfall Mathematical models
Hydrology
SCIENCE / Earth Sciences / Hydrology
Niederschlag (DE-588)4132260-5 gnd
Abfluss (DE-588)4000114-3 gnd
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(DE-588)4000114-3
(DE-588)4151469-5
(DE-588)4047390-9
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title Runoff prediction in ungauged basins synthesis across processes, places and scales
title_auth Runoff prediction in ungauged basins synthesis across processes, places and scales
title_exact_search Runoff prediction in ungauged basins synthesis across processes, places and scales
title_full Runoff prediction in ungauged basins synthesis across processes, places and scales ed. by Günter Blöschl ...
title_fullStr Runoff prediction in ungauged basins synthesis across processes, places and scales ed. by Günter Blöschl ...
title_full_unstemmed Runoff prediction in ungauged basins synthesis across processes, places and scales ed. by Günter Blöschl ...
title_short Runoff prediction in ungauged basins
title_sort runoff prediction in ungauged basins synthesis across processes places and scales
title_sub synthesis across processes, places and scales
topic SCIENCE / Earth Sciences / Hydrology bisacsh
Geowissenschaften
Mathematisches Modell
Runoff
Rain and rainfall
Runoff Mathematical models
Rain and rainfall Mathematical models
Hydrology
SCIENCE / Earth Sciences / Hydrology
Niederschlag (DE-588)4132260-5 gnd
Abfluss (DE-588)4000114-3 gnd
Einzugsgebiet (DE-588)4151469-5 gnd
Prognose (DE-588)4047390-9 gnd
Mathematisches Modell (DE-588)4114528-8 gnd
topic_facet SCIENCE / Earth Sciences / Hydrology
Geowissenschaften
Mathematisches Modell
Runoff
Rain and rainfall
Runoff Mathematical models
Rain and rainfall Mathematical models
Hydrology
Niederschlag
Abfluss
Einzugsgebiet
Prognose
url http://bvbr.bib-bvb.de:8991/F?func=service&doc_library=BVB01&local_base=BVB01&doc_number=026833329&sequence=000002&line_number=0001&func_code=DB_RECORDS&service_type=MEDIA
work_keys_str_mv AT bloschlgunter runoffpredictioninungaugedbasinssynthesisacrossprocessesplacesandscales