The use of unmanned aerial vehicles in flood hazard assessment

Flood inundation models are central components of any flood risk analysis system because they transform the bulk discharge outputs from flood‐frequency analyses or rainfall‐runoff models into distributed predictions of flood hazard in terms of water depth, inundation extent, and flow velocity. The a...

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Vydané v:Journal of flood risk management Ročník 13; číslo 4
Hlavní autori: Karamuz, Emilia, Romanowicz, Renata J., Doroszkiewicz, Joanna
Médium: Journal Article
Jazyk:English
Vydavateľské údaje: Oxford, UK Blackwell Publishing Ltd 01.12.2020
John Wiley & Sons, Inc
Wiley
Predmet:
Aerial photographs
Aerial photography
Boundary conditions
distributed model calibration and validation
Environmental risk
field studies
Flood control
Flood frequency
Flood hazards
Flood mapping
Flood predictions
Flood risk
Flood routing
Floods
Flow velocity
Frequency analysis
Geographic information systems
geometry
georeferencing
Hazard assessment
hazard characterization
Hydrodynamic models
Hydrodynamics
Hydrologic models
Image acquisition
photogrammetry
Rain
Rainfall forecasting
Rainfall-runoff relationships
Remote sensing
risk
Risk analysis
risk management
River channels
Rivers
Runoff
Runoff models
Satellite imagery
satellites
Shorelines
Spaceborne remote sensing
Temporal resolution
Unmanned aerial vehicles
vegetation
Water depth
Weather
Weather conditions
ISSN:1753-318X, 1753-318X
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Abstract Flood inundation models are central components of any flood risk analysis system because they transform the bulk discharge outputs from flood‐frequency analyses or rainfall‐runoff models into distributed predictions of flood hazard in terms of water depth, inundation extent, and flow velocity. The accuracy of flood hazard maps depends on the availability of distributed observations of inundation outlines. Unfortunately, the acquisition of aerial photographs or satellite images is costly and in addition, their temporal resolution is strongly limited by weather conditions. Remote sensing based on unmanned aerial vehicles (UAV) is becoming increasingly popular due its flexibility and quickly decreasing costs. In particular, UAV can provide precise up to date georeferenced information about the location of a river shorelines, channel geometry, and vegetation. This information is particularly useful for the calibration and validation of distributed flood routing models. The application of cheap, well georeferenced UAV images of river shorelines is an unprecedented source of distributed observations. The aim of this article is to present a procedure for the updating of boundary conditions of the hydrodynamic model, based on UAV‐born data. The approach proposed is also a very effective means of on‐line updating of flood risk maps and their verification.
AbstractList Flood inundation models are central components of any flood risk analysis system because they transform the bulk discharge outputs from flood‐frequency analyses or rainfall‐runoff models into distributed predictions of flood hazard in terms of water depth, inundation extent, and flow velocity. The accuracy of flood hazard maps depends on the availability of distributed observations of inundation outlines. Unfortunately, the acquisition of aerial photographs or satellite images is costly and in addition, their temporal resolution is strongly limited by weather conditions. Remote sensing based on unmanned aerial vehicles (UAV) is becoming increasingly popular due its flexibility and quickly decreasing costs. In particular, UAV can provide precise up to date georeferenced information about the location of a river shorelines, channel geometry, and vegetation. This information is particularly useful for the calibration and validation of distributed flood routing models. The application of cheap, well georeferenced UAV images of river shorelines is an unprecedented source of distributed observations. The aim of this article is to present a procedure for the updating of boundary conditions of the hydrodynamic model, based on UAV‐born data. The approach proposed is also a very effective means of on‐line updating of flood risk maps and their verification.
Abstract Flood inundation models are central components of any flood risk analysis system because they transform the bulk discharge outputs from flood‐frequency analyses or rainfall‐runoff models into distributed predictions of flood hazard in terms of water depth, inundation extent, and flow velocity. The accuracy of flood hazard maps depends on the availability of distributed observations of inundation outlines. Unfortunately, the acquisition of aerial photographs or satellite images is costly and in addition, their temporal resolution is strongly limited by weather conditions. Remote sensing based on unmanned aerial vehicles (UAV) is becoming increasingly popular due its flexibility and quickly decreasing costs. In particular, UAV can provide precise up to date georeferenced information about the location of a river shorelines, channel geometry, and vegetation. This information is particularly useful for the calibration and validation of distributed flood routing models. The application of cheap, well georeferenced UAV images of river shorelines is an unprecedented source of distributed observations. The aim of this article is to present a procedure for the updating of boundary conditions of the hydrodynamic model, based on UAV‐born data. The approach proposed is also a very effective means of on‐line updating of flood risk maps and their verification.
Author Doroszkiewicz, Joanna
Karamuz, Emilia
Romanowicz, Renata J.
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  surname: Karamuz
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  organization: Polish Academy of Sciences
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  givenname: Renata J.
  surname: Romanowicz
  fullname: Romanowicz, Renata J.
  organization: Polish Academy of Sciences
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  givenname: Joanna
  surname: Doroszkiewicz
  fullname: Doroszkiewicz, Joanna
  organization: Polish Academy of Sciences
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Snippet Flood inundation models are central components of any flood risk analysis system because they transform the bulk discharge outputs from flood‐frequency...
Abstract Flood inundation models are central components of any flood risk analysis system because they transform the bulk discharge outputs from...
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SubjectTerms Aerial photographs
Aerial photography
Boundary conditions
distributed model calibration and validation
Environmental risk
field studies
Flood control
Flood frequency
Flood hazards
Flood mapping
Flood predictions
Flood risk
Flood routing
Floods
Flow velocity
Frequency analysis
Geographic information systems
geometry
georeferencing
Hazard assessment
hazard characterization
Hydrodynamic models
Hydrodynamics
Hydrologic models
Image acquisition
photogrammetry
Rain
Rainfall forecasting
Rainfall-runoff relationships
Remote sensing
risk
Risk analysis
risk management
River channels
Rivers
Runoff
Runoff models
Satellite imagery
satellites
Shorelines
Spaceborne remote sensing
Temporal resolution
Unmanned aerial vehicles
vegetation
Water depth
Weather
Weather conditions
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Title The use of unmanned aerial vehicles in flood hazard assessment
URI https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fjfr3.12622
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Volume 13
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