Geospatial Assessment of Soil Nutrient Limitations and Site-Specific Fertilizer Recommendations for Potato Farming Systems in Plateau State, Nigeria
Authors
Zonal Advanced Space Technology Application Laboratory (Nigeria)
Zonal Advanced Space Technology Application Laboratory (Nigeria)
Zonal Advanced Space Technology Application Laboratory (Nigeria)
Zonal Advanced Space Technology Application Laboratory (Nigeria)
Zonal Advanced Space Technology Application Laboratory (Nigeria)
Zonal Advanced Space Technology Application Laboratory (Nigeria)
Zonal Advanced Space Technology Application Laboratory (Nigeria)
Article Information
DOI: 10.51584/IJRIAS.2025.10100000168
Subject Category: Information Technology
Volume/Issue: 10/10 | Page No: 1907-1920
Publication Timeline
Submitted: 2025-10-30
Accepted: 2025-11-07
Published: 2025-11-20
Abstract
Precision agriculture approaches require detailed understanding of soil nutrient heterogeneity to develop cost-effective fertilization strategies for sustainable food production. This study employed geospatial technologies to map soil nutrient limitations and formulate zone-specific fertilizer recommendations for potato production systems in Bokkos and Mangu Local Government Areas, Plateau State, Nigeria. Through systematic sampling of 240 georeferenced locations across 3,329.41 km², we analysed soil pH, organic carbon, nitrogen, phosphorus, and potassium using inverse distance weighting interpolation in ArcGIS. Results revealed severe nutrient stratification across the study landscape, with soil acidity affecting 77% of farmlands (pH 4.0-5.36), creating a primary constraint requiring approximately 2,050 km² of lime application. Nitrogen deficiency dominated 83.2% of the area (0.01-0.084% N), while phosphorus limitations encompassed 55.6% of farmlands (3.68-8.91 mg/kg). Conversely, potassium showed adequate levels across 51.5% of locations. Geographic clustering analysis identified three distinct soil management zones: Zone A (central volcanic belt, 45% coverage) exhibiting superior fertility with pH 5.68-7.0 and elevated N-P-K levels; Zone B (peripheral granitic areas, 35% coverage) showing moderate degradation; and Zone C (severely depleted regions, 20% coverage) requiring intensive rehabilitation. Economic analysis suggests prioritizing Zone B with balanced NPK fertilization could yield 300% return on investment, while Zone A requires only maintenance inputs. Zone C necessitates multi-year soil amendment programs combining lime (2-3 tons/ha), organic matter (5-10 tons/ha), and starter fertilizers. This research provides the first comprehensive nutrient prescription map for Plateau State potato systems, enabling farmers and extension services to implement precision fertilization strategies that could potentially increase yields by 40-60% while reducing input costs by 25-30% through targeted application.
Keywords
Precision agriculture, soil fertility mapping, nutrient management zones, fertilizer recommendations, spatial interpolation
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References
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