N: 90 S: -90 E: 180 W: -180
Description
A standardized global data set of soil horizon thicknesses and textures (particle size distributions) was compiled by Webb et al. This data set will be used for the improved ground hydrology parameterization design for the Goddard Institute for Space Studies General Circulation Model (GISS GCM) Model III. The data set specifies the top and bottom depths and the percent abundance of sand, silt, and clay of individual soil horizons in each of the 106 soil types cataloged for nine continental divisions. When combined with the World Soil Data File (Zobler, 1986), the result is a global data set of variations in physical properties throughout the soil profile. These properties are important in the determination of water storage in individual soil horizons and exchange of water with the lower atmosphere. The incorporation of this data set into the GISS GCM should improve model performance by including more realistic variability in land-surface properties. All data are global at a 1 degree resolution and are provided in ASCII format. The primary data consist of 2 files. One file contains the depth and particle size (percent sand, silt, and clay) information for each major continent, soil type, and soil horizon. The other file contains ocean/continental coding (corresponding to FAO/UNESCO Soil Map of the World) (FAO/UNESCO, 1971-1981) and Zobler soil type classifications (Zobler, 1986). A fortran code for reading these data files is provided. In addition to the primary data files, there are also 5 derived data sets available for download: 1) soil profile thickness, 2) potential storage of water in the soil profile, 3) potential storage of water in the root zone, 4) potential storage of water derived from soil texture, 5) data set used to prescribe water-holding capacity in the GISS GCM (Model II). Data Citation The data set should be cited as follows: Webb, Robert W., Cynthia E. Rosenzweig, and Elissa R. Levine. 2000. Global Soil Texture and Derived Water-Holding Capacities (Webb et al.). Available on-line from Oak Ridge National Laboratory Distributed Active Archive Center, Oak Ridge, Tennessee, U.S.A.
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Citation
Citation is critically important for dataset documentation and discovery. This dataset is openly shared, without restriction, in accordance with the EOSDIS Data Use and Citation Guidance.
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USER'S GUIDE
| Title | Year Sort ascending | Author | Topic |
|---|---|---|---|
| Vegetation dynamics offset nearly 30% of precipitation's impact on runoff and are amplified by aridity | Liu, Yongchang, Li, Zhi, Chen, Yaning, Gao, Lei, Zhang, Lu, Turnadge, Chris, He, Bin, Zhou, Xudong, Duan, Weili, Li, Baofu, Fang, Gonghuan, Huang, Wenjing | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Assessing consistency in drought risks in India with multiple multivariate meteorological drought indices (MMDI) under climate change | Varghese, Femin C., Mitra, Subhasis | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Assessing the impact of climate change on rainfall-triggered landslides: a case study in California | Semnani, Shabnam J., Han, Yi, Bonfils, Celine J., White, Joshua A. | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification, Precipitation, Precipitation Amount, Precipitation Rate, Snow, Rain | |
| Earth Observation for Comprehensive Soil Health Assessment and Monitoring | Filchev, Lachezar, Chanev, Milen, Petrov, Galin | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Isotopic partitioning of gaseous nitrogen emissions of natural terrestrial ecosystems | Feng, Maoyuan, Liu, Gang, Wang, Yilong, Chang, Jinfeng, Peng, Shushi | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Integration of PhysicsBased and DataDriven Approaches for Landslide Susceptibility Assessment | Han, Yi, Semnani, Shabnam J. | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification, Precipitation, Precipitation Amount, Precipitation Rate, Snow, Rain | |
| Unequal socioeconomic exposure to drought extremes induced by stratospheric aerosol injection | Fu, Weijie, Yue, Xu, Tian, Chenguang, Xu, Rongbin, Guo, Yuming | Population Estimates, Socioeconomics, Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Anthropogenic climate change doubled the frequency of compound drought and heatwaves in low-income regions | Zhang, Boen, Wang, Shuo, Slater, Louise | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Important considerations in machine learning-based landslide susceptibility assessment under future climate conditions | Han, Yi, Semnani, Shabnam J. | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification, Precipitation, Precipitation Amount, Precipitation Rate, Snow, Rain | |
| The importance of regeneration processes on forest biodiversity in old-growth forests in the Pacific Northwest | Luu, Hoang, Ris Lambers, Janneke Hille, Lutz, James A., Metz, Margaret, Snell, Rebecca S. | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Climate change will accelerate the high-end risk of compound drought and heatwave events | Tripathy, Kumar P., Mukherjee, Sourav, Mishra, Ashok K., Mann, Michael E., Williams, A. Park | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| How Unusual Is the 2022 European Compound Drought and Heatwave Event? | Tripathy, Kumar Puran, Mishra, Ashok Kumar | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Mechanisms of hydrological responses to volcanic eruptions in the Asian monsoon and westerlies-dominated subregions | Zhuo, Zhihong, Kirchner, Ingo, Cubasch, Ulrich | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Spatio-temporal characteristics and driving factors of the meteorological drought across China based on CMIP6 | Zhang, Mengru, Yang, Xiaoli, Pan, Ming, Zhang, Linyan, Fang, Xiuqin, Sheffield, Justin | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Fluvial Response to Climate Change in the Pacific Northwest: Skeena River Discharge and Sediment Yield | Wild, Amanda Lily, Kwoll, Eva, Lintern, D. Gwyn, Fargey, Shannon | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Relative effect of anthropogenic warming and natural climate variability to changes in Compound drought and heatwaves | Mukherjee, Sourav, Mishra, Ashok Kumar, Ashfaq, Moetasim, Kao, Shih-Chieh | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Spatial-temporal analysis of historical and projected drought events over Isiolo County, Kenya | Ochieng, Phillip, Nyandega, Isaiah, Wambua, Boniface | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Deforestation reshapes land-surface energy-flux partitioning | Yuan, Kunxiaojia, Zhu, Qing, Zheng, Shiyu, Zhao, Lei, Chen, Min, Riley, William J, Cai, Xitian, Ma, Hongxu, Li, Fa, Wu, Huayi, Chen, Liang | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Increase in Compound Drought and Heatwaves in a Warming World | Mukherjee, Sourav, Mishra, Ashok Kumar | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Compound Drought and Heatwaves at a Global Scale: The Role of Natural Climate Variability-Associated Synoptic Patterns and Land-Surface Energy Budget Anomalies | Mukherjee, Sourav, Ashfaq, Moetasim, Mishra, Ashok Kumar | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Apparent ecosystem carbon turnover time: uncertainties and robust features | Fan, Naixin, Koirala, Sujan, Reichstein, Markus, Thurner, Martin, Avitabile, Valerio, Santoro, Maurizio, Ahrens, Bernhard, Weber, Ulrich, Carvalhais, Nuno | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Estimation and easy calculation of the Palmer Drought Severity Index from the meteorological data by using the advanced machine learning algorithms | Tufaner, Fatih, Ozbeyaz, Abdurrahman | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Impact of Volcanic Aerosols on the Hydrology of the Asian Monsoon and Westerlies-Dominated Subregions: Comparison of Proxy and Multimodel Ensemble Means | Zhuo, Z., Gao, C., Kirchner, I., Cubasch, U. | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Protection of permafrost soils from thawing by increasing herbivore density | Beer, Christian, Zimov, Nikita, Olofsson, Johan, Porada, Philipp, Zimov, Sergey | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification | |
| Quantifying the impact of vegetation changes on global terrestrial runoff using the Budyko framework | Luo, Yuyan, Yang, Yuting, Yang, Dawen, Zhang, Shulei | Soil Depth, Soil Horizons/Profile, Soil Water Holding Capacity, Soil Texture, Soil Classification |