Inferensys

Use Case

Dynamic Ore Reserve Estimation

Continuously update mineral resource models with new drilling data via AI, providing a real-time, accurate view of reserves to inform extraction and financial planning.
Strategy consultant facilitating AI use case discovery workshop, sticky notes on glass wall, casual corporate meeting.
THE BUSINESS CASE

What is Dynamic Ore Reserve Estimation Used For?

Dynamic Ore Reserve Estimation moves mining from a static, historical snapshot to a live, predictive model of your most critical asset. It's the AI-driven system that continuously updates your understanding of what's in the ground as new data arrives.

The core pain point is capital misallocation. Traditional reserve models are static, often based on outdated drilling data. This leads to flawed mine planning, unexpected grade dilution, and inefficient processing. You're essentially navigating with an old map, making billion-dollar decisions on incomplete information. The result is wasted capex, unpredictable cash flow, and a failure to maximize asset value.

The AI fix is a continuously learning geological model. By integrating new drillhole data, sensor readings, and production feedback in real-time, AI dynamically recalculates ore body geometry, grade, and tonnage. This provides a live, accurate view of reserves, enabling precise short-interval control and agile financial planning. The measurable outcome is a 5-15% increase in recovery, optimized fleet deployment, and a direct boost to Net Present Value (NPV). For a deeper dive into the underlying technology, see our pillar on Subsurface Sensing and Geological AI Intelligence.

AI-DRIVEN ROI

Common Use Cases for Dynamic Reserve Estimation

Move from static, outdated models to a living, breathing view of your mineral assets. These use cases demonstrate how AI-powered dynamic estimation delivers immediate financial and operational clarity.

01

Real-Time Financial Reporting & Asset Valuation

Replace quarterly reserve updates with a continuously updated model, providing CFOs and investors with a real-time view of asset value. This eliminates the 'valuation lag' that plagues traditional reporting.

  • Immediate Impact: Instantly adjust mine plans and capital allocation based on the latest drill data.
  • ROI Driver: Enables more accurate project financing and reduces risk premiums by providing transparent, up-to-date asset backing.
02

Dynamic Short-Term Mine Planning

Continuously integrate blast movement data and grade control drilling to adjust weekly and daily extraction schedules. AI reconciles planned vs. actual ore, minimizing dilution and maximizing recovery.

  • Efficiency Gain: Reduce misclassification of ore and waste by over 15%, directly boosting mill head grade.
  • Example: A copper mine used dynamic estimation to re-route shovels in real-time, recovering an additional $2M in metal value per quarter from the same material.
03

Blending Optimization for Process Stability

Use a live reserve model to intelligently blend ore from different pits or zones to maintain consistent feed grade for the processing plant. AI predicts the impact of blend choices on recovery and throughput.

  • Cost Savings: Stabilizes plant performance, reducing reagent consumption and energy spikes.
  • Business Value: Enables operators to meet stringent product specifications consistently, protecting premium sales contracts.
04

Life-of-Mine Extension & Pit Optimization

Incrementally add new exploration data to the global resource model without restarting from scratch. AI identifies previously uneconomic zones that become viable with updated geology and metal prices.

  • Competitive Advantage: Extend mine life by 6-18 months by finding 'hidden' ore within the existing resource envelope.
  • ROI Case: A gold operation identified a high-grade shear zone through dynamic model updates, adding 500k ounces to reserves without new greenfield exploration.
05

Risk-Quantified Reserve Statements

Generate reserve estimates with quantified confidence intervals, not just a single number. AI models propagate geological uncertainty, giving management a clear view of upside potential and downside risk.

  • Strategic Clarity: Supports better capital decisions by showing the probability distribution of recoverable metal.
  • Regulatory Edge: Provides a more robust, defensible basis for public reporting under JORC or NI 43-101, building investor trust.
06

Integration with Autonomous Fleet Systems

Seamlessly connect the dynamic geological model to autonomous haulage and drilling systems. Trucks and drills receive real-time destination updates based on the latest ore boundaries.

  • Operational Synergy: Creates a closed-loop system where equipment actions continuously inform and refine the resource model.
  • Efficiency Gain: Eliminates delays from manual data handoffs, ensuring equipment is always working the most valuable material.
FROM STATIC SPREADSHEETS TO REAL-TIME ASSET INTELLIGENCE

AI Implementation Roadmap for Dynamic Ore Reserve Estimation

Traditional mineral resource models are static snapshots, often months out of date, creating a costly disconnect between the geological model and financial reality. This roadmap details how AI closes that gap.

The core pain point is financial volatility driven by outdated models. Reserve estimates based on last quarter's drilling data force operations and finance teams to make multi-million dollar decisions—on extraction sequencing, equipment deployment, and market commitments—with incomplete information. This leads to costly overestimation, unexpected grade dilution, and missed production targets, eroding shareholder value and project ROI.

The AI fix is a continuously learning model that ingests new drilling data—assays, geophysics, and geotechnical logs—in real-time. Our physics-informed AI dynamically updates the block model, providing a live, accurate view of ore body geometry and grade. The measurable outcome is a 15-25% reduction in reserve misclassification, enabling precise short-term planning, optimized mill feed, and confident, audit-ready financial reporting. Explore our approach to AI-Powered Mineral Deposit Mapping and Automated Borehole Log Interpretation for related technical foundations.

DYNAMIC ORE RESERVE ESTIMATION

Starting Your Pilot: A Phased Approach to Value

Move from static, quarterly reserve reports to a continuously updated, AI-driven model. This phased implementation delivers immediate operational clarity and long-term financial confidence.

01

Phase 1: Rapid Data Integration & Model Calibration

De-risk your pilot by focusing on a single, high-value ore body. Our AI integrates disparate data sources—historical drill logs, assay results, and geophysical surveys—to create a baseline digital twin.

  • Real-World Example: A mid-tier gold miner calibrated their model using 5 years of legacy data in 3 weeks, identifying a 12% inconsistency in historical grade estimation that had been affecting mill feed planning.
  • Immediate Benefit: Establishes a 'single source of truth' for geological data, eliminating spreadsheet-based errors and version control issues.
02

Phase 2: Real-Time Reserve Reconciliation

Connect the model to live drilling and production data. The AI continuously reconciles the predicted ore body model with actual results, providing a dynamic, auditable reserve statement.

  • Key ROI Driver: Reduces the 'estimation-to-reality' gap. One copper operation used this to cut ore dilution by 8% and improve mill head grade consistency, directly boosting metal recovery.
  • Business Justification: Provides the CFO and operations team with a real-time view of asset value, enabling more confident short-term planning and reducing quarterly reporting surprises.
03

Phase 3: Predictive Financial Planning & Scenario Modeling

Leverage the dynamic model for forward-looking business intelligence. Run 'what-if' scenarios to optimize mine sequencing, capital allocation, and hedging strategies based on probabilistic reserve outcomes.

  • Competitive Advantage: A nickel producer modeled the impact of different cut-off grades under fluctuating price forecasts, identifying a strategy that increased NPV by over $15M for a specific deposit.
  • For the CIO: This phase transforms the AI from an operational tool into a strategic asset for the boardroom, directly linking geological data to financial performance.
04

Phase 4: Integration with Autonomous Systems & Supply Chain

Fully operationalize intelligence by feeding the dynamic reserve model into downstream systems. This enables:

  • AI-Optimized Drilling Trajectory Planning for real-time adjustment.
  • Predictive logistics for ore haulage and stockpile management.
  • Automated grade blending instructions to the processing plant.

Outcome: Creates a closed-loop, intelligent mining system where reserve estimates directly drive autonomous equipment and logistics, maximizing asset utilization and minimizing costs.

05

Quantifying the ROI: From Pilot to Scale

Justify the full-scale investment with clear, phased metrics.

  • Pilot (3-6 months): 20-30% reduction in manual data reconciliation effort. Clear baseline model established.
  • Expansion (6-12 months): 5-10% improvement in ore recovery efficiency through better grade control. Reduced quarterly reserve volatility.
  • Enterprise Scale (12-18 months): >15% increase in Net Present Value (NPV) of mining assets through optimal sequencing. Enables data-driven M&A and portfolio optimization.
06

Overcoming Common Implementation Hurdles

Acknowledge and plan for real-world challenges to ensure pilot success.

  • Data Quality: Start with your best-understood deposit. Our models include data quality scoring to highlight gaps and uncertainties.
  • Change Management: Frame the AI as a 'co-pilot' for geologists and engineers, augmenting expertise, not replacing it. Provide clear model explainability features.
  • IT Integration: We provide containerized deployments that connect to existing data lakes and mining software (e.g., Vulcan, Leapfrog) via secure APIs, avoiding major infrastructure overhaul.
Prasad Kumkar

About the author

Prasad Kumkar

CEO & MD, Inference Systems

Prasad Kumkar is the CEO & MD of Inference Systems and writes about AI systems architecture, LLM infrastructure, model serving, evaluation, and production deployment. Over 5+ years, he has worked across computer vision models, L5 autonomous vehicle systems, and LLM research, with a focus on taking complex AI ideas into real-world engineering systems.

His work and writing cover AI systems, large language models, AI agents, multimodal systems, autonomous systems, inference optimization, RAG, evaluation, and production AI engineering.