Introduction | |
Current State of Digital Soil Mapping and What Is Next | p. 3 |
Research | |
Environmental Covariates and Soil Sampling | |
Environmental Covariates for Digital Soil Mapping in the Western USA | p. 17 |
A Generalized Additive Soil Depth Model for a Mountainous Semi-Arid Watershed Based Upon Topographic and Land Cover Attributes | p. 29 |
Applying Geochronology in Predictive Digital Mapping of Soils | p. 43 |
Scale Effects on Terrain Attribute Calculation and Their Use as Environmental Covariates for Digital Soil Mapping | p. 55 |
Conditioned Latin Hypercube Sampling: Optimal Sample Size for Digital Soil Mapping of Arid Rangelands in Utah, USA | p. 67 |
Soil Sensors and Remote Sensing | |
Using Proximal Soil Sensors for Digital Soil Mapping | p. 79 |
The Use of Hyperspectral Imagery for Digital Soil Mapping in Mediterranean Areas | p. 93 |
Automatic Interpretation of Quickbird Imagery for Digital Soil Mapping, North Caspian Region, Russia | p. 103 |
ASTER-Based Vegetation Map to Improve Soil Modeling in Remote Areas | p. 113 |
Digital Soil Boundary Detection Using Quantitative Hydrologic Remote Sensing | p. 123 |
Soil Inference Systems | |
Homosoil, a Methodology for Quantitative Extrapolation of Soil Information Across the Globe | p. 137 |
Artificial Neural Network and Decision Tree in Predictive Soil Mapping of Hoi Num Rin Sub-Watershed, Thailand | p. 151 |
Evaluation of the Transferability of a Knowledge-Based Soil-Landscape Model | p. 165 |
Random Forests Applied as a Soil Spatial Predictive Model in Arid Utah | p. 179 |
Two Methods for Using Legacy Data in Digital Soil Mapping | p. 191 |
Environmental Application and Assessment | |
Mapping Heavy Metal Content in Soils with Multi-Kernel SVR and LiDAR Derived Data | p. 205 |
Mapping the CN Ratio of the Forest Litters in Europe-Lessons for Global Digital Soil Mapping | p. 217 |
Spatial Prediction and Uncertainty Assessment of Soil Organic Carbon in Hebei Province, China | p. 227 |
Estimating Soil Organic Matter Content by Regression Kriging | p. 241 |
Digital Soil Mapping of Topsoil Organic Carbon Content of Rio de Janeiro State, Brazil | p. 255 |
Comparing Decision Tree Modeling and Indicator Kriging for Mapping the Extent of Organic Soils in Denmark | p. 267 |
Modeling Wind Erosion Events - Bridging the Gap Between Digital Soil Mapping and Digital Soil Risk Assessment | p. 281 |
Making Digital Soil Mapping Operational | |
Soilscapes Basis for Digital Soil Mapping in New Zealand | p. 297 |
Legacy Soil Data Harmonization and Database Development | p. 309 |
Toward Digital Soil Mapping in Canada: Existing Soil Survey Data and Related Expert Knowledge | p. 325 |
Predictive Ecosystem Mapping (PEM) for 8.2 Million ha of Forestland, British Columbia, Canada | p. 337 |
Building Digital Soil Mapping Capacity in the Natural Resources Conservation Service: Mojave Desert Operational Initiative | p. 357 |
A Qualitative Comparison of Conventional Soil Survey and Digital Soil Mapping Approaches | p. 369 |
Applying the Optimum Index Factor to Multiple Data Types in Soil Survey | p. 385 |
US. Department of Agriculture (USDA) TEUI Geospatial Toolkit: An Operational Ecosystem Inventory Application | p. 399 |
Predictive Soil Maps Based on Geomorphic Mapping, Remote Sensing, and Soil Databases in the Desert Southwest | p. 411 |
GlobalSoilMap.net - A New Digital Soil Map of the World | p. 423 |
Methodologies for Global Soil Mapping | p. 429 |
Index | p. 437 |
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