Hydro-Meteorological Hazards, Risks, and Disasters, 2e, provides an integrated look at the major disasters that have had, and continue to have, major implications for many of the world's people, such as floods and droughts. This new edition takes a geoscientific approach to the topic, while also covering current thinking about some scientific issues that are socially relevant and can directly affect human lives and assets. This new edition showcases both academic and applied research conducted in developed and developing countries, allowing readers to see the most updated flood and drought modeling research and their applications in the real world, including for humanitarian emergency purposes. Hydro-Meteorological Hazards, Risks, and Disasters, 2e, also contains new insights about how climate change affects hazardous processes. For the first time, information on the many diverse topics relevant to professionals is aggregated into one volume. It is a valuable reference to researchers, graduates, scientists, physical geographers, urban planners, landscape architects, and other people who work on the build environments of the world. - Cutting-edge discussion of natural hazard topics that affect the lives and livelihoods of millions of people worldwide - Includes numerous full-color tables, GIS maps, diagrams, illustrations, and photographs of hazardous process in action - Provides case studies of prominent hydro-meteorological hazards and disasters
Extreme weather and climate change aggravate the frequency and magnitude of disasters. Facing atypical and more severe events, existing early warning and response systems become inadequate both in scale and scope. Earth Observation (EO) provides today information at global, regional and even basin scales related to agrometeorological hazards. This book focuses on drought, flood, frost, landslides, and storms/cyclones and covers different applications of EO data used from prediction to mapping damages as well as recovery for each category. It explains the added value of EO technology in comparison with conventional techniques applied today through many case studies.
HYDROMETEOROLOGICAL EXTREME EVENTS Hydrometeorological Hazards: Interfacing Science and Policy Recent hydrometeorological extreme events have highlighted the increased exposure and vulnerability of societies and the need to strengthen the knowledge-base of related policies. Current research is focused on improving forecasting, prediction and early warning capabilities in order to improve the assessment of vulnerability and risks linked to extreme climatic events. Hydrometeorological Hazards: Interfacing Science and Policy is the first volume of a series which will gather scientific and policy-related knowledge on climate-related extreme events. Invited authors are internationally recognized experts in their respective fields. This volume reflects the most recent advances in science and policy within this field and takes a multidisciplinary approach. The book provides the reader with a state-of-the art account of flash floods, droughts, storms, and a comprehensive discussion focused on the cost of natural hazards, resilience and adaptation. This book will be an invaluable reference for advanced undergraduates taking courses with a focus on natural hazards, including climate-related extreme events. The book will also be of interest to postgraduates, researchers and policymakers in this field looking for an overview of the subject.
HYDROMETEOROLOGICAL EXTREME EVENTS Hydrometeorological Hazards: Interfacing Science and Policy Recent hydrometeorological extreme events have highlighted the increased exposure and vulnerability of societies and the need to strengthen the knowledge-base of related policies. Current research is focused on improving forecasting, prediction and early warning capabilities in order to improve the assessment of vulnerability and risks linked to extreme climatic events. Hydrometeorological Hazards: Interfacing Science and Policy is the first volume of a series which will gather scientific and policy-related knowledge on climate-related extreme events. Invited authors are internationally recognized experts in their respective fields. This volume reflects the most recent advances in science and policy within this field and takes a multidisciplinary approach. The book provides the reader with a state-of-the art account of flash floods, droughts, storms, and a comprehensive discussion focused on the cost of natural hazards, resilience and adaptation. This book will be an invaluable reference for advanced undergraduates taking courses with a focus on natural hazards, including climate-related extreme events. The book will also be of interest to postgraduates, researchers and policymakers in this field looking for an overview of the subject.
Assessment of risk and uncertainty is crucial for natural hazard risk management, facilitating risk communication and informing strategies to successfully mitigate our society's vulnerability to natural disasters. Written by some of the world's leading experts, this book provides a state-of-the-art overview of risk and uncertainty assessment in natural hazards. It presents the core statistical concepts using clearly defined terminology applicable across all types of natural hazards and addresses the full range of sources of uncertainty, the role of expert judgement and the practice of uncertainty elicitation. The core of the book provides detailed coverage of all the main hazard types and concluding chapters address the wider societal context of risk management. This is an invaluable compendium for academic researchers and professionals working in the fields of natural hazards science, risk assessment and management and environmental science, and will be of interest to anyone involved in natural hazards policy.
Extreme weather and climate change aggravate the frequency and magnitude of disasters. Facing atypical and more severe events, existing early warning and response systems become inadequate both in scale and scope. Earth Observation (EO) provides today information at global, regional and even basin scales related to agrometeorological hazards. This book focuses on drought, flood, frost, landslides, and storms/cyclones and covers different applications of EO data used from prediction to mapping damages as well as recovery for each category. It explains the added value of EO technology in comparison with conventional techniques applied today through many case studies.
Provides an understanding of the relationship between social-ecological systems and multilevel governance so that readers can properly deal with hydrometeorological extreme events and hazards Based on field investigations from EU research projects, this book is the first to devote itself to scientific and policy-related knowledge concerning climate change-induced extreme events. It depicts national and international strategies, as well as tools used to improve multilevel governance for the management of hydrometeorological risks. It also demonstrates how these strategies play out over different scales of the decision-making processes. Facing Hydrometeorological Extreme Events: A Governance Issue offers comprehensive coverage of such events as floods, droughts, coastal storms, and wind storms. It showcases real-life success stories of multilevel governance and highlights the individuals involved and the resources mobilized in the decision-making processes. The book starts by presenting a synthesis of hydrometeorological extreme events and their impacts on society. It then demonstrates how societies are organizing themselves to face these extreme events, focusing on the strategies of integration of risk management in governance and public policy. In addition, it includes the results of several EU-funded projects such as CLIMB, STARFLOOD, and INTERREG IVB project DROP. The first book dedicated to hydrometeorological extreme events governance based on field investigations from EU research projects Offers a “multi-hazards” approach—mixing policy, governance, and field investigations’ main outputs Features the results of EU-funded projects addressing hydrometeorological extreme events Part of the Hydrometeorological Extreme Events series Facing Hydrometeorological Extreme Events is an ideal book for upper-graduate students, postgraduates, researchers, scientists, and policy-makers working in the field.
Hydrometeorological prediction involves the forecasting of the state and variation of hydrometeorological elements -- including precipitation, temperature, humidity, soil moisture, river discharge, groundwater, etc.-- at different space and time scales. Such forecasts form an important scientific basis for informing public of natural hazards such as cyclones, heat waves, frosts, droughts and floods. Traditionally, and at most currently operational centers, hydrometeorological forecasts are deterministic, “single-valued” outlooks: i.e., the weather and hydrological models provide a single best guess of the magnitude and timing of the impending events. These forecasts suffer the obvious drawback of lacking uncertainty information that would help decision-makers assess the risks of forecast use. Recently, hydrometeorological ensemble forecast approaches have begun to be developed and used by operational collection of hydrometeorological services. In contrast to deterministic forecasts, ensemble forecasts are a multiple forecasts of the same events. The ensemble forecasts are generated by perturbing uncertain factors such as model forcings, initial conditions, and/or model physics. Ensemble techniques are attractive because they not only offer an estimate of the most probable future state of the hydrometeorological system, but also quantify the predictive uncertainty of a catastrophic hydrometeorological event occurring. The Hydrological Ensemble Prediction Experiment (HEPEX), initiated in 2004, has signaled a new era of collaboration toward the development of hydrometeorological ensemble forecasts. By bringing meteorologists, hydrologists and hydrometeorological forecast users together, HEPEX aims to improve operational hydrometeorological forecast approaches to a standard that can be used with confidence by emergencies and water resources managers. HEPEX advocates a hydrometeorological ensemble prediction system (HEPS) framework that consists of several basic building blocks. These components include:(a) an approach (typically statistical) for addressing uncertainty in meteorological inputs and generating statistically consistent space/time meteorological inputs for hydrological applications; (b) a land data assimilation approach for leveraging observation to reduce uncertainties in the initial and boundary conditions of the hydrological system; (c) approaches that address uncertainty in model parameters (also called ‘calibration’); (d) a hydrologic model or other approach for converting meteorological inputs into hydrological outputs; and finally (e) approaches for characterizing hydrological model output uncertainty. Also integral to HEPS is a verification system that can be used to evaluate the performance of all of its components. HEPS frameworks are being increasingly adopted by operational hydrometeorological agencies around the world to support risk management related to flash flooding, river and coastal flooding, drought, and water management. Real benefits of ensemble forecasts have been demonstrated in water emergence management decision making, optimization of reservoir operation, and other applications.
Initial priorities for U.S. participation in the International Decade for Natural Disaster Reduction, declared by the United Nations, are contained in this volume. It focuses on seven issues: hazard and risk assessment; awareness and education; mitigation; preparedness for emergency response; recovery and reconstruction; prediction and warning; learning from disasters; and U.S. participation internationally. The committee presents its philosophy of calls for broad public and private participation to reduce the toll of disasters.
This book describes recent developments in hydrometeorological forecasting techniques for a range of timescales, from short term to seasonal and longer terms. It conveniently brings together both meteorological and hydrological aspects in a single volume.
