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A Geoinformatics Approach to Water Erosion = Soil Loss and Beyond /
紀錄類型:
書目-語言資料,印刷品 : Monograph/item
正題名/作者:
A Geoinformatics Approach to Water Erosion/ by Tal Svoray.
其他題名:
Soil Loss and Beyond /
作者:
Svoray, Tal.
面頁冊數:
XXII, 349 p. 159 illus., 73 illus. in color.online resource. :
Contained By:
Springer Nature eBook
標題:
Physical Geography. -
電子資源:
https://doi.org/10.1007/978-3-030-91536-0
ISBN:
9783030915360
A Geoinformatics Approach to Water Erosion = Soil Loss and Beyond /
Svoray, Tal.
A Geoinformatics Approach to Water Erosion
Soil Loss and Beyond /[electronic resource] :by Tal Svoray. - 1st ed. 2022. - XXII, 349 p. 159 illus., 73 illus. in color.online resource.
Dedication -- Preface -- Acknowledgement -- 1. Soil erosion: The general problem -- 1.1 The soil, and its erosion -- 1.2 Scope of soil erosion -- 1.3 A brief history of soil loss -- 1.4 Soil as a finite resource -- 1.5 Summary -- 2 The case of agricultural catchments -- 2.1 Erosion factors in a distinct landform -- 2.2 On-site and off-site consequences -- 2.3 The human agent -- 2.4 Summary -- 3 The physical process -- 3.1 The basics of hillslope erosion -- 3.2 Water Erosion Prediction Project (WEPP) -- 3.3 CAESAR-Lisflood a landscape evolution model -- 3.4 Morgan-Morgan-Finney (MMF) -- 3.5 Summary -- 4 Spatial variation in the catchment -- 4.1 Discrete spatial units -- 4.2 A suite of continuous variables -- 4.3 Summary -- 5 Earth-based observations -- 5.1 Spectral indices: spectral signatures and mathematical expressions -- 5.2 Classification -- 5.3 Synergy of RS data in catchment models -- 5.4 Close range analysis -- 5.5 Summary -- 6 Predicting erosion risk: from expert knowledge to data mining -- 6.1 The Topographic Threshold -- 6.2 Expert-based systems -- 6.3 The data-mining approach -- 6.4 Fuzzy logic -- 6.5 Summary -- 7 Health of the remaining soil -- 7.1 The soil health index -- 7.2 Statistical analysis and pre-processing -- 7.3 Mapping soil health -- 7.4 Summary -- 8 Decision-making -- 8.1 Decision-making in soil conservation -- 8.2 The simple expert system -- 8.3 GISCAME -- 8.4 Summary -- References -- Index -- Nomenclature.
Degradation of agricultural catchments due to water erosion is a major environmental threat at the global scale, with long-lasting destructive consequences valued at tens of billions of dollars per annum. Eroded soils lead to reduced crop yields and deprived agroecosystem’s functioning through, for example, decreased water holding capacity, poor aeration, scarce microbial activity, and loose soil structure. This can result in reduced carbon sequestration, limited nutrient cycling, contamination of water bodies due to eutrophication, low protection from floods and poor attention restoration—consequences that go far beyond the commonly modelled soil loss and deposition budgets. This book demonstrates, using data from the Harod catchment in northern Israel, how cutting-edge geoinformatics, data science methodologies and soil health indicators can be used to measure, predict, and regulate these major environmental hazards. It shows how these approaches are used to quantify—in time and space—the effect of water erosion not only on the soil layer, soil minerals, and soil loss, but also on the wide-range of services that agricultural ecosystems might supply for the benefit and well-being of humans. The algorithms described in this book play a major role in this paradigm shift and they include, for example, extraction of photogrammetric DEMs from drone's data, advanced drainage structure calculations, fuzzy process-based modelling and spatial topographic threshold computations, multicriteria analyses and expert-based systems development using analytic hierarchal processes, innovative data-mining and machine learning tools, autocorrelation and interpolation of soil health, physically-based soil evolution models, spatial decision support systems and many more.
ISBN: 9783030915360
Standard No.: 10.1007/978-3-030-91536-0doiSubjects--Topical Terms:
670374
Physical Geography.
LC Class. No.: S590-599.9
Dewey Class. No.: 631.4
A Geoinformatics Approach to Water Erosion = Soil Loss and Beyond /
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Dedication -- Preface -- Acknowledgement -- 1. Soil erosion: The general problem -- 1.1 The soil, and its erosion -- 1.2 Scope of soil erosion -- 1.3 A brief history of soil loss -- 1.4 Soil as a finite resource -- 1.5 Summary -- 2 The case of agricultural catchments -- 2.1 Erosion factors in a distinct landform -- 2.2 On-site and off-site consequences -- 2.3 The human agent -- 2.4 Summary -- 3 The physical process -- 3.1 The basics of hillslope erosion -- 3.2 Water Erosion Prediction Project (WEPP) -- 3.3 CAESAR-Lisflood a landscape evolution model -- 3.4 Morgan-Morgan-Finney (MMF) -- 3.5 Summary -- 4 Spatial variation in the catchment -- 4.1 Discrete spatial units -- 4.2 A suite of continuous variables -- 4.3 Summary -- 5 Earth-based observations -- 5.1 Spectral indices: spectral signatures and mathematical expressions -- 5.2 Classification -- 5.3 Synergy of RS data in catchment models -- 5.4 Close range analysis -- 5.5 Summary -- 6 Predicting erosion risk: from expert knowledge to data mining -- 6.1 The Topographic Threshold -- 6.2 Expert-based systems -- 6.3 The data-mining approach -- 6.4 Fuzzy logic -- 6.5 Summary -- 7 Health of the remaining soil -- 7.1 The soil health index -- 7.2 Statistical analysis and pre-processing -- 7.3 Mapping soil health -- 7.4 Summary -- 8 Decision-making -- 8.1 Decision-making in soil conservation -- 8.2 The simple expert system -- 8.3 GISCAME -- 8.4 Summary -- References -- Index -- Nomenclature.
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Degradation of agricultural catchments due to water erosion is a major environmental threat at the global scale, with long-lasting destructive consequences valued at tens of billions of dollars per annum. Eroded soils lead to reduced crop yields and deprived agroecosystem’s functioning through, for example, decreased water holding capacity, poor aeration, scarce microbial activity, and loose soil structure. This can result in reduced carbon sequestration, limited nutrient cycling, contamination of water bodies due to eutrophication, low protection from floods and poor attention restoration—consequences that go far beyond the commonly modelled soil loss and deposition budgets. This book demonstrates, using data from the Harod catchment in northern Israel, how cutting-edge geoinformatics, data science methodologies and soil health indicators can be used to measure, predict, and regulate these major environmental hazards. It shows how these approaches are used to quantify—in time and space—the effect of water erosion not only on the soil layer, soil minerals, and soil loss, but also on the wide-range of services that agricultural ecosystems might supply for the benefit and well-being of humans. The algorithms described in this book play a major role in this paradigm shift and they include, for example, extraction of photogrammetric DEMs from drone's data, advanced drainage structure calculations, fuzzy process-based modelling and spatial topographic threshold computations, multicriteria analyses and expert-based systems development using analytic hierarchal processes, innovative data-mining and machine learning tools, autocorrelation and interpolation of soil health, physically-based soil evolution models, spatial decision support systems and many more.
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