ResearchResearch paperTraining & Scaling1 source · Oct 11, 2026

Physics-guided machine learning for saturation control across variable hydraulic conditions in heap leaching

Heap-leaching hydraulics vary between regions of an ore bed, motivating fast prediction models that accommodate different material properties.

Key points

  • This study develops a parameter-conditioned physics-guided machine-learning (PGML) surrogate and demonstrates its use in simulated saturation control.
  • A dataset of 4096 numerical Richards-equation trajectories was divided into 2867 training, 614 validation and 615 evaluation cases.
  • A daily predictive controller compared 200 constant irrigation rates over a 24-hour horizon.
  • The results support a reusable physics-guided surrogate for large-scale saturation control in simulation.

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