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Advanced technologies have provided detailed spatiotemporal information about a variety of environmental variables and natural processes. Environmental model developers tend to make use of all available data and rigorously model all the detailed processes. Such practice may lead to highly complex models that demand large computational budgets to simulate the system. For example, a hydrologic or groundwater model representing a detailed conceptualization with a fine discretization level may demand hours (or even days) for a single run. Such computationally intensive models may be required to…mehr

Produktbeschreibung
Advanced technologies have provided detailed spatiotemporal information about a variety of environmental variables and natural processes. Environmental model developers tend to make use of all available data and rigorously model all the detailed processes. Such practice may lead to highly complex models that demand large computational budgets to simulate the system. For example, a hydrologic or groundwater model representing a detailed conceptualization with a fine discretization level may demand hours (or even days) for a single run. Such computationally intensive models may be required to iteratively run many times (e.g., thousands of times) for various analyses including optimization, automatic calibration, design space exploration, sensitivity analysis, and uncertainty analysis, imposing prohibitively large computational burdens. This book is focused on the state-of-the-art concepts and methodologies for circumventing such computational challenges. Different approaches such as model pre-emption, surrogate modelling (metamodelling), and model reduction are discussed. Applications, benefits and drawbacks of different methods are demonstrated through multiple case studies.
Autorenporträt
Saman Razavi received the PhD degree in civil engineering from the University of Waterloo in Ontario, Canada. His current research interests include environmental and water resources systems analysis, hydrologic model development and calibration, single- and multiple-objective optimization, sensitivity analysis, and uncertainty estimation.