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Atmospheric chemistry --- Optical spectroscopy --- Envisat (Satellite)
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SCIAMACHY, the SCanning Imaging Absorption spectroMeter for Atmospheric CHartographY, is a passive sensor for exploring the Earth’s atmosphere. It is part of the payload of the European Earth Observation mission ENVISAT, launched on 1 March 2002. SCIAMACHY observes absorption spectra of molecules from the UV (214 nm) to the short-wave infrared wavelength range (2386 nm) and derives the atmospheric composition – trace gases, aerosols, clouds – from these measurements. Having meanwhile successfully monitored and explored the Earth’s atmosphere for more than 8 years, new and exciting insights into the Earth-atmosphere system are obtained. The provided global data sets do not only cover greenhouse gases and pollutants in the troposphere or the ozone chemistry in the stratosphere but even reach up to the mesosphere and lower thermosphere. They contribute significantly to atmospheric physics and chemistry as well as climate change research. SCIAMACHY is one of the major current Earth Observation undertakings of Germany, The Netherlands and Belgium, accomplished in cooperation with the European Space Agency (ESA). Many scientific groups at various institutes in Europe and abroad were and are actively involved in the analysis of the data. This book is a comprehensive summary describing the entire SCIAMACHY mission – from the very first ideas to the current results. It illustrates how the measurements are performed, how the trace gas concentrations are derived from the measured spectra and how the unique data sets are used to improve our understanding of the changing Earth’s atmosphere. The targeted readership is not only the existing and potentially new SCIAMACHY data users from undergraduate student level up to researchers new in the fields of atmospheric chemistry and remote sensing, but anyone who is keen to learn about SCIAMACHY’s efforts to study the atmosphere and its responses to both, natural phenomena and anthropogenic effects.
Atmosphere -- Remote sensing -- Instruments. --- Envisat (Satellite). --- Solar radiation -- Remote sensing -- Instruments. --- Earth & Environmental Sciences --- Meteorology & Climatology --- Atmosphere --- Solar radation --- Atmospheric chemistry. --- Meteorology --- Remote sensing --- Instruments. --- Research. --- Envisat (Satellite) --- Meteorological research --- Weather research --- Atmospheric research --- Earth sciences. --- Climatology. --- Atmospheric sciences. --- Astronomy. --- Astrophysics. --- Cosmology. --- Earth Sciences. --- Atmospheric Sciences. --- Astronomy, Astrophysics and Cosmology. --- Weather --- Chemistry, Physical and theoretical --- Research --- Atmospheric science
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Earth sciences --- Artificial satellites in earth sciences --- Earth resources technology satellites --- Remote sensing --- Envisat (Satellite) --- Conferences - Meetings --- Earth resources satellites --- ERTS --- Scientific satellites --- Earth sciences - Remote sensing - Congresses --- Artificial satellites in earth sciences - Congresses --- Earth resources technology satellites - Congresses
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Atmospheric chemistry --- Artificial satellites in earth sciences. --- Remote sensing --- Instruments. --- Artificial satellites in earth sciences --- -Chemistry, Physical and theoretical --- Earth sciences --- -Instruments --- Envisat (Satellite) --- -Remote sensing --- Chemistry, Physical and theoretical --- Remote sensing&delete& --- Instruments --- Atmospheric science --- Atmospheric chemistry - Remote sensing - Instruments.
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Artificial satellites in earth sciences. --- Earth resources technology satellites. --- Envisat (Satellite) --- Artificial satellites in earth sciences --- Earth resources technology satellites --- -Geosciences --- Earth resources satellites --- ERTS --- Scientific satellites --- -Remote sensing --- -Earth resources satellites --- Earth sciences --- Remote sensing --- Remote sensing. --- Pensions --- Pension trusts --- Earth sciences - Remote sensing.
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Satellite altimetry is a radar technique for measuring the topography of the Earth’s surface. It was initially designed for measuring the ocean’s topography, with reference to an ellipsoid, and for the determination of the marine geoid. Satellite altimetry has provided extremely valuable information on ocean science (e.g., circulation surface geostrophic currents, eddy structures, wave heights, and the propagation of oceanic Kelvin and Rossby waves). With more than 25 years of observations, it is also becoming vital to climate research, providing accurate measurements of sea level variations from regional to global scales. Altimetry has also demonstrated a strong potential for geophysical, cryospheric, and hydrological research and is now commonly used for the monitoring of Arctic and Antarctic ice sheet topography and of terrestrial surface water levels. This book aims to present reviews and recent advances of general interest in the use of radar altimetry in Earth sciences. Manuscripts are related to any aspect of radar altimetry technique or geophysical applications. We also encourage manuscripts resulting from the application of new altimetric technology (SAR, SARin, and Ka band) and improvements expected from missions to be launched in the near future (i.e., SWOT).
water level --- ALES --- wet path delay --- CryoSat-2 --- water volume transport --- water level time series --- storm surge --- filtering --- validation --- polar ocean --- ocean tides --- satellite altimetry --- lake level --- classification --- ENVISAT --- numerical modelling --- PISTACH --- water levels --- evaporation --- geodesy --- waveform --- ALES retracker --- waveform retracking --- unsupervised classification --- CryosSat-2 SAR --- peakiness --- Envisat --- Jason-2 --- calibration --- SARAL --- ACC --- microwave radiometer --- ocean geostrophy --- data processing --- fine scale --- SWOT --- orbit decay --- Aral Sea --- geodetic orbit --- radar altimetry --- oceanography --- streamflow --- K-medoids --- retracking --- ice --- SWOT simulator --- coastal altimetry --- Ka-band --- western Mediterranean Sea --- topography of the intertidal zone --- FVCOM --- HY-2A --- inland water --- tide gauge --- discharge --- ERS-2 --- marine gravity --- wet tropospheric correction --- South China Sea --- stack data --- upper layer thickness --- drifting orbit --- hydrology --- Sentinel-3 --- two-layer ocean model --- satellite geodesy --- Fram Strait --- space gravity --- leads --- satellite altimeter --- range precision --- sensor calibration --- ROMS model --- X-TRACK --- SAR --- Inner Niger Delta --- Greenland Sea --- Gravity Recovery and Climate Experiment (GRACE) --- Mekong Basin --- altimetry --- Hong Kong coast --- soil moisture --- Argo --- Southern Ocean --- Landsat --- dielectric permittivity --- sea surface height --- lake volume
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This book focuses on remote sensing for urban deformation monitoring. In particular, it highlights how deformation monitoring in urban areas can be carried out using Persistent Scatterer Interferometry (PSI) and Synthetic Aperture Radar (SAR) Tomography (TomoSAR). Several contributions show the capabilities of Interferometric SAR (InSAR) and PSI techniques for urban deformation monitoring. Some of them show the advantages of TomoSAR in un-mixing multiple scatterers for urban mapping and monitoring. This book is dedicated to the technical and scientific community interested in urban applications. It is useful for choosing the appropriate technique and gaining an assessment of the expected performance. The book will also be useful to researchers, as it provides information on the state-of-the-art and new trends in this field
surface subsidence --- PS --- permanent scatterers --- land subsidence --- PS-InSAR --- thermal dilation --- SBAS-InSAR --- Sepulveda Transit Corridor --- deformation --- differential SAR interferometry --- reclaimed land --- Istanbul --- deformation monitoring --- skyscrapers --- generalized likelihood ratio test --- validation --- uplift --- displacement monitoring --- pursuit monostatic --- radar interferometry --- Sentinel-1A --- urbanization --- synthetic aperture radar --- Turkey --- terraSAR-X --- geological and geomorphological mapping --- London --- differential compaction --- expansive soils --- health monitoring --- Copernicus Sentinel-1 --- displacement mapping --- PALSAR --- land reclamation --- tomography --- Venetian-Friulian Plain --- ALOS PALSAR --- multi-temporal DInSAR --- SAR interferometry --- InSAR --- persistent scatterers --- carbonate karstification --- ENVISAT ASAR --- multiple PS detection --- sparse signals --- urban subsidence --- time series InSAR analysis --- time series analysis --- Persistent Scatterer Interferometry (PSI) --- engineering construction --- Rome --- persistent scatterer interferometry --- subsidence --- persistent scatterer interferometry (PSI) --- SNAP-StaMPS --- Lingang New City --- dewatering --- atmospheric component --- urban deformation monitoring --- Sentinel-1 --- differential interferometry --- Late-Quaternary deposits --- modelling --- Generalized Likelihood Ratio Test --- Persistent Scatterer Interferometry --- synthetic aperture radar (SAR) --- Capon estimation --- differential tomography --- deformation time series --- groundwater level variation --- radar detection --- multi-look SAR tomography --- spaceborne SAR --- SAR --- ERS-1/-2 --- reclamation settlements --- Wuhan --- subsidence monitoring --- water level changes --- polarimetry --- asymmetric subsidence --- urban monitoring --- urban areas --- landslide --- SAR tomography --- Urayasu City --- risk --- Los Angeles --- PALSAR-2
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