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Coastal environments are dynamic ecosystems, where erosion is influenced by meteorological/climatic, geological, biological, and anthropic factors. Erosion has worrying effects on the environment, infrastructure, lifelines, and buildings. Furthermore, climate change is exacerbating an already fragile situation. We are witnessing a high-risk situation and are convinced that this is the most appropriate time to focus on state-of-the-art remote sensing techniques for shoreline monitoring. The improvements in the spatial and spectral resolution of current and next generation satellite-based sensors and the significant progress in the spatial data processing identify remote sensing techniques that increase our knowledge of territory and coastline. This Special Issue aims to highlight an overview of all multiscale remote sensing techniques (e.g., high resolution images, photogrammetry, SAR, etc.) and a whole array of methods and techniques that process, analyse, and discuss multitemporal remotely sensed data. Thank you to all of our contributors and authors for their interesting and illuminating studies. Since this topic is complex and dynamic, we hope to develop this research with future works to form more cutting-edge studies.
History of engineering & technology --- DGPS measurements --- video camera observation --- shoreline position --- beach survey --- Sentinel-2 --- Remote Sensing --- habitat mapping --- mangroves --- coral reefs --- climate change --- vulnerable habitats --- side-scan sonar --- swath bathymetry --- habitat monitoring --- hurricane Sandy --- hurricane Joaquin --- shoreline detection --- remote sensing --- WorldView-2 --- Abruzzo --- multispectral classification --- shoreline --- coastline --- satellite images --- synthetic aperture radar (SAR) --- Sentinel-1 --- shoreline extraction --- coastline extraction --- active connection matrix (ACM) --- J-Net Dynamic --- edge detection --- canny edge detector --- coastline mapping --- geomatics --- SfM photogrammetry --- network RTK --- sea level rise --- coastlines --- 2100 --- storm surges --- heritage sites --- Pyrgi --- Mediterranean --- UAV --- DSM --- n/a
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Coastal environments are dynamic ecosystems, where erosion is influenced by meteorological/climatic, geological, biological, and anthropic factors. Erosion has worrying effects on the environment, infrastructure, lifelines, and buildings. Furthermore, climate change is exacerbating an already fragile situation. We are witnessing a high-risk situation and are convinced that this is the most appropriate time to focus on state-of-the-art remote sensing techniques for shoreline monitoring. The improvements in the spatial and spectral resolution of current and next generation satellite-based sensors and the significant progress in the spatial data processing identify remote sensing techniques that increase our knowledge of territory and coastline. This Special Issue aims to highlight an overview of all multiscale remote sensing techniques (e.g., high resolution images, photogrammetry, SAR, etc.) and a whole array of methods and techniques that process, analyse, and discuss multitemporal remotely sensed data. Thank you to all of our contributors and authors for their interesting and illuminating studies. Since this topic is complex and dynamic, we hope to develop this research with future works to form more cutting-edge studies.
DGPS measurements --- video camera observation --- shoreline position --- beach survey --- Sentinel-2 --- Remote Sensing --- habitat mapping --- mangroves --- coral reefs --- climate change --- vulnerable habitats --- side-scan sonar --- swath bathymetry --- habitat monitoring --- hurricane Sandy --- hurricane Joaquin --- shoreline detection --- remote sensing --- WorldView-2 --- Abruzzo --- multispectral classification --- shoreline --- coastline --- satellite images --- synthetic aperture radar (SAR) --- Sentinel-1 --- shoreline extraction --- coastline extraction --- active connection matrix (ACM) --- J-Net Dynamic --- edge detection --- canny edge detector --- coastline mapping --- geomatics --- SfM photogrammetry --- network RTK --- sea level rise --- coastlines --- 2100 --- storm surges --- heritage sites --- Pyrgi --- Mediterranean --- UAV --- DSM --- n/a
Choose an application
Coastal environments are dynamic ecosystems, where erosion is influenced by meteorological/climatic, geological, biological, and anthropic factors. Erosion has worrying effects on the environment, infrastructure, lifelines, and buildings. Furthermore, climate change is exacerbating an already fragile situation. We are witnessing a high-risk situation and are convinced that this is the most appropriate time to focus on state-of-the-art remote sensing techniques for shoreline monitoring. The improvements in the spatial and spectral resolution of current and next generation satellite-based sensors and the significant progress in the spatial data processing identify remote sensing techniques that increase our knowledge of territory and coastline. This Special Issue aims to highlight an overview of all multiscale remote sensing techniques (e.g., high resolution images, photogrammetry, SAR, etc.) and a whole array of methods and techniques that process, analyse, and discuss multitemporal remotely sensed data. Thank you to all of our contributors and authors for their interesting and illuminating studies. Since this topic is complex and dynamic, we hope to develop this research with future works to form more cutting-edge studies.
History of engineering & technology --- DGPS measurements --- video camera observation --- shoreline position --- beach survey --- Sentinel-2 --- Remote Sensing --- habitat mapping --- mangroves --- coral reefs --- climate change --- vulnerable habitats --- side-scan sonar --- swath bathymetry --- habitat monitoring --- hurricane Sandy --- hurricane Joaquin --- shoreline detection --- remote sensing --- WorldView-2 --- Abruzzo --- multispectral classification --- shoreline --- coastline --- satellite images --- synthetic aperture radar (SAR) --- Sentinel-1 --- shoreline extraction --- coastline extraction --- active connection matrix (ACM) --- J-Net Dynamic --- edge detection --- canny edge detector --- coastline mapping --- geomatics --- SfM photogrammetry --- network RTK --- sea level rise --- coastlines --- 2100 --- storm surges --- heritage sites --- Pyrgi --- Mediterranean --- UAV --- DSM --- DGPS measurements --- video camera observation --- shoreline position --- beach survey --- Sentinel-2 --- Remote Sensing --- habitat mapping --- mangroves --- coral reefs --- climate change --- vulnerable habitats --- side-scan sonar --- swath bathymetry --- habitat monitoring --- hurricane Sandy --- hurricane Joaquin --- shoreline detection --- remote sensing --- WorldView-2 --- Abruzzo --- multispectral classification --- shoreline --- coastline --- satellite images --- synthetic aperture radar (SAR) --- Sentinel-1 --- shoreline extraction --- coastline extraction --- active connection matrix (ACM) --- J-Net Dynamic --- edge detection --- canny edge detector --- coastline mapping --- geomatics --- SfM photogrammetry --- network RTK --- sea level rise --- coastlines --- 2100 --- storm surges --- heritage sites --- Pyrgi --- Mediterranean --- UAV --- DSM
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Monitoring oceans and coastal areas has a fundamental social impact, and this scenario is made still more challenging with the present and future issues related to climate change. In this context, radar systems have gained increasing interest, since they are remote sensing devices capable of providing information about sea waves, currents, tides, bathymetry, and wind. Moreover, radar systems can be designed to perform both large-scale and small-scale monitoring, with different spatial and temporal resolutions, and can be installed on different observation platforms (ship-based, ground-based, airborne, satellite or drones). In this regard, this book aims at engendering a virtual forum for ocean radar researchers, where state-of-the-art methodologies and applications concerning ocean monitoring by means of radar technologies are reviewed and discussed.
History of engineering & technology --- HF radar --- monitoring --- circulation --- Atlantic Jet --- flow reversal --- Gibraltar --- Alboran Sea --- X-band radar --- tidal variation --- modified temporal waterline method --- shoreline position --- intertidal foreshore slope --- wave run-up correction --- current velocity measurement --- high-frequency (HF) radar oceanography --- remote sensing --- quality control --- coastal surface currents --- soft computing --- radar --- sensitivity experiments --- numerical model --- artificial neural network --- inversion --- radar cross-section --- monostatic radar --- ocean wave directional spectrum --- TensorFlow --- wave directional spectra --- spatial wave fields --- ADCP --- wave buoy --- significant wave height --- marine radar --- sea state monitoring --- scum --- hypertrophic ecosystem --- Sentinel-1 --- Sentinel-2 --- Sentinel-3 --- cloudiness --- high-frequency ocean radar --- interference mitigation --- frequency band adaptation --- high frequency radar --- sea surface temperature --- surface currents --- south-west Australia --- synthetic aperture radar --- Doppler anomaly --- sea surface currents --- Gulf of Naples --- augmented observatory --- wave field --- radar Doppler altimeter --- orbital velocities --- waveforms --- swell --- radar altimeter --- sea surface current
Choose an application
Monitoring oceans and coastal areas has a fundamental social impact, and this scenario is made still more challenging with the present and future issues related to climate change. In this context, radar systems have gained increasing interest, since they are remote sensing devices capable of providing information about sea waves, currents, tides, bathymetry, and wind. Moreover, radar systems can be designed to perform both large-scale and small-scale monitoring, with different spatial and temporal resolutions, and can be installed on different observation platforms (ship-based, ground-based, airborne, satellite or drones). In this regard, this book aims at engendering a virtual forum for ocean radar researchers, where state-of-the-art methodologies and applications concerning ocean monitoring by means of radar technologies are reviewed and discussed.
HF radar --- monitoring --- circulation --- Atlantic Jet --- flow reversal --- Gibraltar --- Alboran Sea --- X-band radar --- tidal variation --- modified temporal waterline method --- shoreline position --- intertidal foreshore slope --- wave run-up correction --- current velocity measurement --- high-frequency (HF) radar oceanography --- remote sensing --- quality control --- coastal surface currents --- soft computing --- radar --- sensitivity experiments --- numerical model --- artificial neural network --- inversion --- radar cross-section --- monostatic radar --- ocean wave directional spectrum --- TensorFlow --- wave directional spectra --- spatial wave fields --- ADCP --- wave buoy --- significant wave height --- marine radar --- sea state monitoring --- scum --- hypertrophic ecosystem --- Sentinel-1 --- Sentinel-2 --- Sentinel-3 --- cloudiness --- high-frequency ocean radar --- interference mitigation --- frequency band adaptation --- high frequency radar --- sea surface temperature --- surface currents --- south-west Australia --- synthetic aperture radar --- Doppler anomaly --- sea surface currents --- Gulf of Naples --- augmented observatory --- wave field --- radar Doppler altimeter --- orbital velocities --- waveforms --- swell --- radar altimeter --- sea surface current
Choose an application
Monitoring oceans and coastal areas has a fundamental social impact, and this scenario is made still more challenging with the present and future issues related to climate change. In this context, radar systems have gained increasing interest, since they are remote sensing devices capable of providing information about sea waves, currents, tides, bathymetry, and wind. Moreover, radar systems can be designed to perform both large-scale and small-scale monitoring, with different spatial and temporal resolutions, and can be installed on different observation platforms (ship-based, ground-based, airborne, satellite or drones). In this regard, this book aims at engendering a virtual forum for ocean radar researchers, where state-of-the-art methodologies and applications concerning ocean monitoring by means of radar technologies are reviewed and discussed.
History of engineering & technology --- HF radar --- monitoring --- circulation --- Atlantic Jet --- flow reversal --- Gibraltar --- Alboran Sea --- X-band radar --- tidal variation --- modified temporal waterline method --- shoreline position --- intertidal foreshore slope --- wave run-up correction --- current velocity measurement --- high-frequency (HF) radar oceanography --- remote sensing --- quality control --- coastal surface currents --- soft computing --- radar --- sensitivity experiments --- numerical model --- artificial neural network --- inversion --- radar cross-section --- monostatic radar --- ocean wave directional spectrum --- TensorFlow --- wave directional spectra --- spatial wave fields --- ADCP --- wave buoy --- significant wave height --- marine radar --- sea state monitoring --- scum --- hypertrophic ecosystem --- Sentinel-1 --- Sentinel-2 --- Sentinel-3 --- cloudiness --- high-frequency ocean radar --- interference mitigation --- frequency band adaptation --- high frequency radar --- sea surface temperature --- surface currents --- south-west Australia --- synthetic aperture radar --- Doppler anomaly --- sea surface currents --- Gulf of Naples --- augmented observatory --- wave field --- radar Doppler altimeter --- orbital velocities --- waveforms --- swell --- radar altimeter --- sea surface current --- HF radar --- monitoring --- circulation --- Atlantic Jet --- flow reversal --- Gibraltar --- Alboran Sea --- X-band radar --- tidal variation --- modified temporal waterline method --- shoreline position --- intertidal foreshore slope --- wave run-up correction --- current velocity measurement --- high-frequency (HF) radar oceanography --- remote sensing --- quality control --- coastal surface currents --- soft computing --- radar --- sensitivity experiments --- numerical model --- artificial neural network --- inversion --- radar cross-section --- monostatic radar --- ocean wave directional spectrum --- TensorFlow --- wave directional spectra --- spatial wave fields --- ADCP --- wave buoy --- significant wave height --- marine radar --- sea state monitoring --- scum --- hypertrophic ecosystem --- Sentinel-1 --- Sentinel-2 --- Sentinel-3 --- cloudiness --- high-frequency ocean radar --- interference mitigation --- frequency band adaptation --- high frequency radar --- sea surface temperature --- surface currents --- south-west Australia --- synthetic aperture radar --- Doppler anomaly --- sea surface currents --- Gulf of Naples --- augmented observatory --- wave field --- radar Doppler altimeter --- orbital velocities --- waveforms --- swell --- radar altimeter --- sea surface current
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