Rotational Grazing Optimizer

Client: Agricultural Operations Industry: Sustainable Agriculture Completed: January 15, 2026
Python Systems Modeling Weather Integration Optimization

Challenge

A North Texas cattle operation managed multiple paddocks across varied terrain — hilltops, creek bottoms, and newly seeded pastures — each responding differently to weather and grazing pressure. Rotation decisions were made by feel, risking overgrazing during dry spells and underutilizing forage during growth windows.

Solution

Built a system dynamics simulation engine that models forage growth, soil moisture, and carrying capacity across every paddock simultaneously. The engine integrates real-time weather data — daily precipitation, evapotranspiration, and temperature — to forecast paddock conditions and recommend optimal rotation timing.

  • Weather-driven forage growth model using Euler integration with daily time steps
  • Per-paddock calibration accounting for terrain, shade, and drainage characteristics
  • Two-move-ahead optimizer that evaluates rotation candidates against projected conditions
  • Historical simulation mode to reconstruct current paddock state from planting and weather records

Impact

  • Rotation decisions shifted from intuition to data-driven recommendations
  • Optimizer evaluates all viable moves in under 120ms, enabling real-time decision support
  • Forage utilization improved by avoiding premature moves during active growth periods
  • System adapts automatically to weather variability without manual recalibration