Smart Watershed Planning for Sustainable Agriculture
This domain trains students in smart watershed planning, rainwater harvesting, artificial recharge, GIS-based mapping, R programming and hydrological modelling — bridging field-level practice with modern geospatial and simulation tools.
Domain Overview
The domain develops practical competence in soil and water conservation, rainwater harvesting, artificial recharge, hydrological modelling, GIS-based watershed planning and sustainable management of rainfed areas. It bridges field-level watershed practices with modern geospatial and modelling tools.
Soil erosion, runoff, water scarcity, drought and flood risk are major challenges in agricultural landscapes. This domain trains students to conserve soil, harvest rainfall, improve groundwater recharge and plan watershed interventions that support climate-resilient agriculture and rural livelihoods.
The curriculum is aligned with watershed development projects, water-resource agencies, GIS consultancies, irrigation, drainage, rural development organisations, NGOs, CSR initiatives and climate-resilience programmes.
Practical competence in soil & water conservation, GIS watershed planning and hydrological modelling.
Tackles soil erosion, water scarcity, drought and flood risk in rainfed agricultural landscapes.
Aligned with watershed agencies, GIS consultancies, NGOs, irrigation & climate-resilience projects.
Smart watershed planning, hydrological modelling, flood & drought risk, GIS-based NRM.
What Sets Us Apart
Field survey, conservation-structure design, GIS mapping, hydrological statistics, watershed modelling and industrial internship — all combined in one domain.
ArcGIS / QGIS, Google Earth, DEM analysis, R programming, SWAT, HEC-HMS, HEC-RAS and other hydrological models form the technology backbone.
Rainwater harvesting, artificial recharge, farm ponds, contour bunds, embankments, flood routing, erosion modelling and sustainable watershed planning.
Balanced training in natural resource conservation and livelihood improvement in rainfed agricultural landscapes across India.
Classical soil and water conservation engineering combined with modern geospatial and data-science tools for real-world decision-making.
Directly connects agriculture, hydrology, GIS and climate resilience — highly relevant for contemporary water-security challenges.
In the Field & Lab
Hands-On Learning
Modern Tools & Software
| Technology / Software / Tool | Application in the Domain |
|---|---|
| ArcGIS / QGIS | Watershed delineation, contour mapping, slope/aspect mapping, drainage density analysis, LULC mapping, soil erosion mapping and site selection for conservation structures. |
| Google Earth | Ground-truthing and reconnaissance for locating watershed boundaries, drainage lines, farm ponds, recharge sites and land-use features. |
| DEM & Satellite Imagery | Watershed boundary extraction, stream ordering, elevation analysis, slope mapping, flow-path analysis, evapotranspiration mapping and water budget studies. |
| R Programming | Hydrological data cleaning, visualization, regression, time-series analysis, statistical testing, bootstrapping and data interpretation. |
| SWAT Model | Watershed delineation, HRU analysis, runoff simulation, sediment-yield assessment, calibration, validation and water-balance studies. |
| HEC-HMS | Rainfall-runoff modelling, catchment response simulation, flood estimation and hydrologic storage/routing exercises. |
| HEC-RAS | River flow simulation, 1D flood modelling, channel analysis and demonstration of hydraulic modelling concepts. |
| SPAW / HBV / TOPMODEL / DSS-ET | Soil-water balance, hydrological simulation, evapotranspiration assessment and comparative model-based watershed analysis. |
| GIS-based Recharge & Erosion Mapping | Identification of groundwater recharge zones, erosion-prone areas, sediment-risk zones and priority intervention locations. |
| GPS / Field-Survey Tools | Topographical survey, geotagging, field verification, conservation-structure layout and watershed inventory preparation. |
Learning Outcomes
Build student skills in collecting, analysing and critically interpreting watershed, hydrological, geospatial and field data.
Develop practical competence in rainwater harvesting, artificial recharge, farm-pond design, earthen embankment design and soil-water conservation structures.
Train students in modern tools such as GIS, R programming, SWAT, HEC-HMS, HEC-RAS and other watershed simulation models.
Strengthen field-based and software-based learning through watershed delineation, morphometric analysis, LULC mapping, recharge-zone identification and erosion-risk mapping.
Improve industry readiness for watershed development, natural resource management, water resources, irrigation, rural development and climate-resilience projects.
Encourage innovation and research for multidisciplinary field projects, data-driven watershed planning and sustainable livelihood improvement in rainfed areas.
Infrastructure
Academic Programme
| Course Code | Course Title | Credits | Type (T+P+Pj) |
|---|---|---|---|
| CUSW2340 | Rainwater Harvesting and Artificial Recharge | 3 | 1+2+0 |
| CUSW2341 | Integrated Watershed Management | 3 | 2+1+0 |
| CUSW2342 | Sustainable Watershed | 3 | 1+2+0 |
| CUSW2343 | R Programming in Watershed Hydrology | 3 | 0+2+1 |
| CUSW2344 | Modelling and Simulation of Watershed Processes | 3 | 0+2+1 |
| CUSW2345 | Geo-spatial Application in Watershed Management | 3 | 0+2+1 |
| CUSW2346 | Industrial Internship | 10 | 0+0+10 |
| CUSW2347 | Internship | 4 | 0+0+4 |
| CUSW2348 | Project | 6 | 0+0+6 |
| Total — Soil and Water Conservation through Watershed | 28 | 4+11+13 | |
Beyond the Classroom
Domain Coordinator
Associate Professor
Department of Agricultural Engineering
Centurion University of Technology and Management
Paralakhemundi, Odisha