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Mining AI & Optimization Article

How AI Bridges Forecast vs Actual Gaps in Mining

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Bridging the Gap: Aligning Mining Forecasts with Operational Reality Using AI

Forecasting is at the core of every mining operation. From tonnage targets to recovery rates, strategic plans are built on assumptions about what the mine will deliver. But when execution begins, reality often looks different. Fragmented systems, ore variability, and manual updates introduce lag - and by the time a variance is flagged, the impact is already felt. This is where AI makes the difference: by linking forecasts and operational data in near real time, mining companies can identify deviations early, adjust proactively, and improve outcomes.


Why Forecast vs. Actual Breakdowns Happen

The disconnect between forecasts and actual production is common - and costly. Some of the biggest causes include:

  • Ore Body Complexity: Incomplete or overly generalized geological models lead to inaccurate recovery assumptions.

  • Process Variability: Changes in grind size, moisture content, or throughput that aren’t reflected in planning assumptions.

  • Lagging Data: Forecasting tools often pull from stale or siloed data, reducing agility in fast-changing conditions.

Studies have shown that disconnects between plan and actual performance can erode margin, particularly when decisions are based on outdated or overly smoothed projections (Parrott, 2023).


How AI Bridges the Forecast-Reality Divide

AI brings structure and speed to reconciliation. Here’s how:

  • Dynamic Updating: Machine learning algorithms ingest real-time operational data - such as sensor outputs and production logs - to update forecasts on the fly (Kumar, 2020).

  • Pattern Recognition: AI can identify early warning signals in deviations, such as declining grades or longer-than-expected cycle times.

  • Scenario Analysis: Forecast models embedded with AI can test multiple outcomes based on actual field behavior, improving short- and mid-term planning accuracy (Hyndman & Athanasopoulos, 2023).

At NTWIST, our platform integrates operational and planning data to enable continuous reconciliation. Whether you're comparing ROM pad performance with geological estimates or actual grind size with modeled recovery, we help you see gaps faster and act with clarity.


Impact of Real-Time Reconciliation

When forecasting and operational reality stay in sync, the benefits compound:

  • Fewer Surprises: Planning teams can adjust upstream decisions before they cascade into costly consequences.

  • Improved Throughput: Equipment and resources are matched to actual - not assumed-conditions.

  • Stronger Decision Loops: Real-time feedback enables rapid refinement of models, boosting planning confidence.

Mining operations that leverage AI for forecast reconciliation outperform those that rely on periodic, manual updates - especially in complex or variable ore bodies.


Conclusion

Forecasts are only useful if they reflect reality. With AI, mining companies no longer need to choose between long-range planning and real-time visibility. By connecting the plan to the pit dynamically, AI-driven reconciliation gives decision-makers the confidence to adjust early - and perform better.

References

Hyndman, R. J., & Athanasopoulos, G. (2023). Forecast Reconciliation: A Review. International Journal of Forecasting. Retrieved from https://www.sciencedirect.com/science/article/pii/S0169207023001097

Kumar, S. (2020). Artificial Intelligence Algorithms for Real-Time Production Planning with Incoming New Information in Mining Complexes. Ph.D. Dissertation, McGill University. Retrieved from https://cosmo.mcgill.ca/.../Kumar-2020-...pdf

Parrott, D. (2023). Advances in the Use of Artificial Intelligence for Open Pit Reconciliation. Proceedings of the 2023 International Mining Geology Conference. Retrieved from https://papers.acg.uwa.edu.au/d/2335_62_Parrott/62_Parrott.pdf

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