Listing 1 - 4 of 4 |
Sort by
|
Choose an application
This edition of Evapotranspiration - Remote Sensing and Modeling contains 23 chapters related to the modeling and simulation of evapotranspiration (ET) and remote sensing-based energy balance determination of ET. These areas are at the forefront of technologies that quantify the highly spatial ET from the Earth's surface. The topics describe mechanics of ET simulation from partially vegetated surfaces and stomatal conductance behavior of natural and agricultural ecosystems. Estimation methods that use weather based methods, soil water balance, the Complementary Relationship, the Hargreaves and other temperature-radiation based methods, and Fuzzy-Probabilistic calculations are described. A critical review describes methods used in hydrological models. Applications describe ET patterns in alpine catchments, under water shortage, for irrigated systems, under climate change, and for grasslands and pastures. Remote sensing based approaches include Landsat and MODIS satellite-based energy balance, and the common process models SEBAL, METRIC and S-SEBS. Recommended guidelines for applying operational satellite-based energy balance models and for overcoming common challenges are made.
Evapotranspiration --- Hydrologic models. --- Remote sensing. --- Consumptive use --- Water-supply --- Evaporation (Meteorology) --- Plants --- Hydrological modeling --- Hydrological models --- Hydrology --- Hydrology models --- Models and modelmaking --- Transpiration --- Water requirements --- Models --- Hydrology & the hydrosphere
Choose an application
The book is a thorough presentation of theoretical and applied aspects of the evaporation and evapotranspiration process supported by data from experimental studies. It is written in a way that the theoretical background of evaporation and evapotranspiration estimation is presented in a simplified manner, comprehensive to most technical readers. Part of the book deals with details of meteorological parameters and monitoring sensors which are needed for estimating evaporation and evapotranspiration. Errors in meteorological parameter measurements are also presented. Estimation errors, strengths, weaknesses and applicability of a wide range of evaporation and evapotranspiration estimation methods are presented along with samples of application to a certain region. The book presents applications of newer, simpler methods, and a new technology: remote sensing application to evaporation and evapotranspiration estimation. The latest interest in the subject, climate change and evapotranspiration is discussed in the last chapter. This book will be beneficial to students, hydrologists, engineers, meteorologists, water managers and others.
Evaporation. --- Evapotranspiration. --- Earth sciences. --- Climatology. --- Hydrogeology. --- Atmospheric sciences. --- Remote sensing. --- Climate change. --- Earth Sciences. --- Atmospheric Sciences. --- Remote Sensing/Photogrammetry. --- Climate Change. --- Consumptive use --- Water-supply --- Evaporation (Meteorology) --- Plants --- Chemistry --- Moisture --- Physics --- Vapors --- Transpiration --- Water requirements --- Hydraulic engineering. --- Climatic changes. --- Changes, Climatic --- Changes in climate --- Climate change --- Climate change science --- Climate changes --- Climate variations --- Climatic change --- Climatic changes --- Climatic fluctuations --- Climatic variations --- Global climate changes --- Global climatic changes --- Climatology --- Climate change mitigation --- Teleconnections (Climatology) --- Engineering, Hydraulic --- Engineering --- Fluid mechanics --- Hydraulics --- Shore protection --- Environmental aspects --- Remote-sensing imagery --- Remote sensing systems --- Remote terrain sensing --- Sensing, Remote --- Terrain sensing, Remote --- Aerial photogrammetry --- Aerospace telemetry --- Detectors --- Space optics --- Atmospheric sciences --- Earth sciences --- Atmosphere --- Climate --- Climate science --- Climate sciences --- Science of climate --- Atmospheric science --- Geohydrology --- Geology --- Hydrology --- Groundwater --- Global environmental change
Choose an application
Evapotranspiration and its components (evaporation and transpiration) as a process is one of the basic terms of Earth's water balance; its importance is accented by the fact that transpiration is the vital element of the biomass production process. The second important property of evapotranspiration is its extreme consumption of solar energy, thus controlling the temperature of the atmosphere and creating favourable conditions for life. Evapotranspiration as an energy consuming process is also the connection between the energy and mass cycles of the Earth. Evapotranspiration is a process performing in the Soil–Plant –Atmosphere System (SPAS); therefore this book is presenting and quantifying it as a catenary process, describing transport of water in the soil, including root extraction patterns and methods of its evaluation. Transport of water through the plant and from the canopy to the atmosphere is also described and quantified. A variety of evapotranspiration (and its components evaporation and transpiration) calculation methods are described, starting from empirical methods up to the most sophisticated ones based on the solution of the transport equations of water and energy in the SPAS. The most important (and widely used) calculation method - modified Penman–Monteith method is described in details, ready to be used with data in the book only. Water balance method of evapotranspiration estimation as well as sap flow method description can be found in the book as well. The book can be used by hydrologists, biologists, meteorologists and other specialists as well as by ecology students. Key themes: soil hydrology – evapotranspiration – hydropedology– plant physiology – water movement in soils – evaporation – transpiration Dr. Viliam Novák is a water resources scientist at the Institute of Hydrology of the Slovak Academy of Sciences in Bratislava (Slovakia). .
Groundwater flow. --- Plant-soil relationships. --- Plant-water relationships. --- Evapotranspiration --- Plants --- Plant-atmosphere relationships --- Plant-soil relationships --- Earth & Environmental Sciences --- Geography --- Botany --- Physical Geography --- Plant Physiology --- Meteorology & Climatology --- Transpiration --- Evapotranspiration. --- Plants and soil --- Soil-plant relationships --- Soils and plants --- Consumptive use --- Earth sciences. --- Hydrogeology. --- Atmospheric sciences. --- Ecology. --- Systems biology. --- Biological systems. --- Earth Sciences. --- Atmospheric Sciences. --- Biological Networks, Systems Biology. --- Plant ecology --- Water-supply --- Evaporation (Meteorology) --- Water requirements --- Hydraulic engineering. --- Systems Biology. --- Balance of nature --- Biology --- Bionomics --- Ecological processes --- Ecological science --- Ecological sciences --- Environment --- Environmental biology --- Oecology --- Environmental sciences --- Population biology --- Engineering, Hydraulic --- Engineering --- Fluid mechanics --- Hydraulics --- Shore protection --- Ecology --- Ecology . --- Biosystems --- Systems, Biological --- System theory --- Systems biology --- Computational biology --- Bioinformatics --- Biological systems --- Molecular biology --- Atmospheric sciences --- Earth sciences --- Atmosphere --- Geohydrology --- Geology --- Hydrology --- Groundwater --- Philosophy
Choose an application
The new revised edition of a classic Earth science textThis newly revised edition of Global Environment discusses the major elements of the geochemical cycles and global fluxes found in the atmosphere, land, lakes, rivers, biota, and oceans, as well as the human effects on these fluxes. Retaining the strengths of the original edition while incorporating the latest discoveries, this textbook takes an integrated, multidisciplinary, and global approach to geochemistry and environmental problems and introduces fundamental concepts of meteorology, surficial geology (weathering, erosion, and sedimentation), biogeochemistry, limnology, and oceanography.New concepts and information in this updated edition include changes of atmospheric carbon dioxide over geologic time, major advances in the study of chemical weathering of rocks, ocean acidification, and important environmental problems, such as the amelioration of the acid rain problem due to reduction in sulfur deposition, problems with nitrification of soils and lakes, and eutrophication of rivers and estuaries. An expanded chapter explores atmospheric chemistry and changing climate, with the most up-to-date statistics on CO2, the carbon cycle, other greenhouse gases, and the ozone hole. Only requiring a fundamental understanding in elementary chemistry, yet taking into account extensive and current data, this text is ideal for students in environmental geochemistry, environmental geology, global change, biogeochemistry, water pollution, geochemical cycles, chemical oceanography, and geohydrology, and serves as a valuable reference for researchers working on global geochemical and environmental issues.Revised edition takes a close look at global fluxes involving the atmosphere, land, lakes, rivers, biota, and oceans, and the human effects on these fluxesDetailed discussion of basic concepts including meteorology, surficial geology (weathering, erosion, and sedimentation), biogeochemistry, limnology, and oceanographyAn expanded up-to-date chapter on atmospheric chemistry and changing climate, including CO2, other greenhouse gases, and ozonePresentation of major advances in the study of chemical weatheringDiscussion of current environmental topicsGlobal coverage of environmental problems involving water
Environmental Sciences and Forestry. Environmental Sciences -- Environmental Sciences (General). --- Atmospheric circulation. --- Atmospheric chemistry. --- Hydrologic cycle. --- Acid rain. --- Aerosol. --- Aluminosilicate. --- Ammonium. --- Atlantic Ocean. --- Atmosphere of Earth. --- Bicarbonate. --- Biogeochemical cycle. --- Biomass (ecology). --- Biomass. --- Calcite. --- Calcium. --- Carbon dioxide. --- Carbonate. --- Carbonic acid. --- Chemical composition. --- Chemical reaction. --- Climate change. --- Combustion. --- Cyanobacteria. --- Deep sea. --- Deforestation. --- Denitrification. --- Denudation. --- Diatom. --- Dissolved silica. --- Drainage basin. --- Earth. --- Erosion. --- Estuaries. --- Estuary. --- Eutrophication. --- Evaporation. --- Evaporite. --- Fertilizer. --- Fossil fuel. --- Fresh water. --- Geochemical cycle. --- Geochemistry. --- Global warming. --- Greenhouse gas. --- Groundwater. --- Hydrology. --- Inflow (meteorology). --- Ion exchange. --- Magnesium. --- Methane. --- Nitrate. --- Nitric acid. --- Nitrification. --- Nitrogen cycle. --- Nitrogen fixation. --- Nitrogen. --- Nitrous oxide. --- Nutrient. --- Ocean acidification. --- Organic acid. --- Organic compound. --- Ozone depletion. --- Ozone layer. --- Pacific Ocean. --- Particulates. --- Pelagic zone. --- Phosphate. --- Phosphorus cycle. --- Phosphorus. --- Photosynthesis. --- Phytoplankton. --- Pollutant. --- Pollution. --- Potassium. --- Precipitation. --- Primary production. --- Pyrite. --- Radiative forcing. --- River. --- Salinity. --- Sea salt. --- Seawater. --- Sediment. --- Sedimentary rock. --- Silicate. --- Sodium. --- Soil water (retention). --- Soil. --- Solubility. --- Sulfate. --- Sulfur dioxide. --- Sulfuric acid. --- Surface runoff. --- Surface water. --- Thermocline. --- Thermohaline circulation. --- Total organic carbon. --- Water cycle. --- Water mass. --- Water vapor. --- Weathering. --- Year.
Listing 1 - 4 of 4 |
Sort by
|