N: 83.9997 S: -56.0008 E: 180 W: -180
TABLE OF CONTENTS
Description
This dataset - HYSOGs250m - represents a globally consistent, gridded dataset of hydrologic soil groups (HSGs) with a geographical resolution of 1/480 decimal degrees, corresponding to a projected resolution of approximately 250-m. These data were developed to support USDA-based curve-number runoff modeling at regional and continental scales. Classification of HSGs was derived from soil texture classes and depth to bedrock provided by the Food and Agriculture Organization soilGrids250m system.
Product Summary
Platforms
Models
Instruments
Computer
Projects
Soil
Spatial Extent
Location
GLOBAL
Coordinate System
CARTESIAN
Granule Spatial Representation
CARTESIAN
Temporal Extent
2017-01-01 to 2017-11-28
Data Partner
THE OAK RIDGE NATIONAL LABORATORY (ORNL) DISTRIBUTED ACTIVE ARCHIVE CENTER (DAAC) (ORNL_DAAC)
Concept ID
C2216864285-ORNL_CLOUD
Data State
COMPLETE
Number of Files/Granules
1
Processing Level
3
Published
Updated
Science Keywords
Runoff
,
Soil Texture
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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Citation Copied
Ross, C. W., Prihodko, L., Anchang, J. Y., Kumar, S. S., Ji, W., & Hanan, N. P. (2018). Global Hydrologic Soil Groups (HYSOGs250m) for Curve Number-Based Runoff Modeling (Version 1). ORNL Distributed Active Archive Center. https://doi.org/10.3334/ORNLDAAC/1566 Date Accessed: 2026-06-05
Ross, C.W., L. Prihodko, J.Y. Anchang, S.S. Kumar, W. Ji, and N.P. Hanan. “Global Hydrologic Soil Groups (HYSOGs250m) for Curve Number-Based Runoff Modeling.” ORNL Distributed Active Archive Center, January 1, 2018. doi:10.3334/ORNLDAAC/1566. Date Accessed: 2026-06-05
Ross, C. W., et al. Global Hydrologic Soil Groups (HYSOGs250m) for Curve Number-Based Runoff Modeling. 1, ORNL Distributed Active Archive Center, 1 Jan. 2018, doi:10.3334/ORNLDAAC/1566. Date Accessed: 2026-06-05
TABLE OF CONTENTS
Publications Citing This Dataset
Filters
| Title | Year Sort ascending | Author | Topic |
|---|---|---|---|
| A bayesian framework for dynamic monthly curve number conditioning using | Parisay, Zahra, Mirdashtvan, Mahsa, Abdollahi, Khodayar, Sheikh, Vahedberdi | Runoff, Soil Texture | |
| Afforestation priority for multiple objectives at national scale: Italy as a case study | Gibertini, Chiara, Rossi, Lorenzo M. W., Cislaghi, Alessio, Galimberti, Susanna, Marchetti, Simone, Marchi, Maurizio, Pastore, Maria C., Pimentel, Luis, Salbitano, Fabio, Shamir, Livia, Vacchiano, Giorgio | Runoff, Soil Texture, Population Density | |
| Hybrid defences for flash-flood resilience: multi-scenario assessment of grey and nature-based solutions in Indonesia's watershed | Hidayah, Entin, Dhokhikah, Yeny, Sulistyowati, Hari, Soetjipto, Jojok Widodo, Widodo, Joko, Gunawan, Alexander Agung Santoso, Herawati, Henny, Azmeri, Azmeri, Juliastuti, Juliastuti | Runoff, Soil Texture | |
| Intercomparison of regional flood frequency estimation procedures in | Diop, Serigne Bassirou, Tramblay, Yves, Bodian, Ansoumana, Dieppois, Bastien, Ouarda, Taha B. M. J. | Runoff, Soil Texture, Carbon, Cation Exchange Capacity, Organic Matter | |
| Land use change as a driver of hydrological ecosystem services in the | Obateru, Rotimi Oluseyi | Runoff, Soil Texture | |
| Land use/Land cover control on groundwater recharge: A multi-method | Lweendo, Muumbe K., Mapani, Benjamin, Banda, Kawawa, Adelabu, Samuel, Bassukas, Dimitrios, Kulls, Christoph | Runoff, Soil Texture | |
| Effects of green infrastructure composition and configuration on runoff | Liu, Ling, Chen, Zhaofang, Lu, Xinghao, Wang, Yuncai | Runoff, Soil Texture | |
| Effects of River Channel Structural Modifications on High-Flow Characteristics Using 2D Rain-on-Grid HEC-RAS Modelling: A Case of Chongwe River Catchment in Zambia | Mudenda, Frank, M. Mwangi, Hosea, Gathenya, John M., Maina, Caroline W. | Runoff, Soil Texture | |
| Evaluating urban flood risk and retention potential using InVEST-UFRM: a case study from Gurugram, India | Sehrawat, Simran, Shekhar, Sulochana | Runoff, Soil Texture | |
| Deep learning-based aided spatial mapping of local scale hydrologic soil | Faouzi, Elhousna, Arioua, Abdelkrim, Hssaisoune, Mohammed, Houmma, Ismaguil Hanade, Brahim, Yassine Ait, Ismail, Karaoui, Arshad, Arfan, Bouchaou, Lhoussaine | Runoff, Soil Texture | |
| Flood-sensitive land take (FSL) analysis: A new way to read how urban | Azadgar, Anahita, Benedini, Andrea, Salata, Stefano, Lacoere, Peter, Badach, Joanna, Nyka, Lucyna | Runoff, Soil Texture | |
| How do international boundary river dynamics affect riparian land? Insights from the China-Russia Ussuri River | Huang, Sijing, Lu, Shengquan, Wu, Bin, Zhang, Wenzhu | Runoff, Soil Texture | |
| Feasibility of pumped hydro energy storage in arid climate using GIS and | Badi, Shima Hassan, Alamailes, Abubaker A., Maitieg, Abduladim, Talhey, Mohamed A. | Runoff, Soil Texture | |
| Flood Hazard Assessment Under Subsidence-Influenced Terrain Using Deformation-Adjusted DEM in an Oil and Gas Field | Al Sulaimani, Mohammed, Abdalla, Rifaat, El-Diasty, Mohammed, Al Abri, Amani, El-Ghali, Mohamed A. K., Tabook, Ahmed | Runoff, Soil Texture | |
| GEMS-GER: a machine learning benchmark dataset of long-term groundwater levels in Germany with meteorological forcings and site-specific environmental ... | Ohmer, Marc, Liesch, Tanja, Habbel, Bastian, Heudorfer, Benedikt, Gomez, Mariana, Clos, Patrick, Nolscher, Maximilian, Broda, Stefan | Runoff, Soil Texture | |
| Predicting LULC Changes and Assessing their Impact on Surface Runoff | Riche, Abdelkader, Drias, Ammar, Ricci, Riccardo, Souissi, Boularbah, Melgani, Farid | Runoff, Soil Texture | |
| Natural climate change and social population ageing reconstruct the flood risk gap between inland and coastal cities in China | Gu, Xinyue, Liu, Xinhu, Long, Zhiyong, Duan, Huanfeng, Liu, Xintao | Runoff, Soil Texture | |
| Multilevel Flood Susceptibility Mapping by Fuzzy Sets, Analytical | Gorsevski, Pece V., Milevski, Ivica | Runoff, Soil Texture | |
| Modeling of rainfall-runoff and flooding using HEC-HMS model through GIS | Hagras, Ali | Runoff, Soil Texture | |
| Role of nutrient and runoff retention in reducing nutrient export and runoff: a comprehensive framework for sustainable basin-scale water management | Shifaw, Eshetu, Vilas, Cesar, Corzo, Alfonso, Papaspyrou, Sokratis | Runoff, Soil Texture | |
| The potential of green infrastructure in urban pluvial flood mitigationa scenario-based modelling study in Berlin | Dobkowitz, Sophia, De Vos, Leon Frederik, Jarajapu, Deva Charan, Lindenlaub, Sarah, Samprogna Mohor, Guilherme, Seleem, Omar, Bronstert, Axel | Runoff, Soil Texture | |
| A modified curve number method for runoff prediction of different soil | Wang, Miaomiao, Zhao, Yangdong, Shi, Wenhai, Yu, Jinle, Chen, Tiantian, Bao, Jiachi, Song, Wenyi, Chen, Hongjun | Runoff, Soil Texture | |
| Application of explainable artificial intelligence to decode water-induced soil erosion in Lidder watershed of the Greater Himalayas | Majid, Syed Irtiza, Kumar, Manish, Bhadwal, Sourav | Runoff, Soil Texture | |
| A Systematic Framework of Flash Floods Disaster-Causing Mechanisms in | Liu, Qiuyuan, Yang, Ranmao, Zhao, Lin, Li, Xinxin, Wang, Gangsheng, Wu, Jianjun | Runoff, Soil Texture | |
| An online tool and open database for curve number (CN) data retrieval in | Kourtis, Ioannis M., Perdikaki, Martha, Zacharakis, Ioannis, Zotou, Ioanna, Vangelis, Harris, Kallioras, Andreas, Tsihrintzis, Vassilios A. | Runoff, Soil Texture |