Minerals Processing Optimization

What the AI does

AI maps and categorizes ore types, generates synthetic samples to model chemical/mineralogical properties without physical testing, and simulates the grinding + flotation chain to recommend optimal additive doses. Result: higher yield, less energy, fewer hazardous chemicals.

Domain

Mining and minerals processing (copper, nickel, lithium, rare earths).

Pattern

  • In: assay data + ore composition + historical processing results + sensor data from the plant.
  • Reasoning: characterization model categorizes incoming ore; simulator models chemical separation under candidate parameter sets (synthetic-data-generation fills the gap where physical testing is too slow/destructive).
  • Out: real-time setpoint recommendations for the processing plant; pre-emptive flagging of ores that need parameter adjustment.
  • Human checkpoint: plant operator confirms parameter changes; metallurgist reviews on novel ore arrivals.

Deployments in the wild

What’s actually being measured

  • Yield improvement (asserted; no quantified figure).
  • Reduction in energy and reagent consumption (asserted).
  • Not measured publicly: failure rate on novel ore types — Deloitte itself flags “novel ores” as the canonical OOD-failure example.

Concept linkages

  • scaling-wall — the textbook in-source example: “models struggle to generalize when faced with novel ores.”
  • synthetic-data-generation — the dark-data workaround that produces this OOD risk.
  • agentic-revolution — moving from suggested-setpoint to closed-loop control is the agentic step.
  • autonomy-slider — closed-loop control of hazardous chemicals = liability concern, keeps the slider low.
  • vertical-ai-orchestration — sits inside the broader mine operations orchestrator.

Open questions

  • How does the system learn from genuinely novel ore types without first failing on them at production scale?
  • Does the sustainability framing (less energy/reagent) survive lifecycle analysis once the compute cost is included?