Botswana Minerals Plc · LSE:BMIN

Botswana Minerals — Botswana Diamonds — African Mining Summit (AMS 2025)

34 slides from Botswana Minerals's conference presentation, Oct 15, 2025

  1. Slide 1: An Artificial Intelligence-driven Approach to Mineral Exploration in Botswana

    An Artificial Intelligence-driven Approach to Mineral Exploration in Botswana James AH Campbell Managing Director, Botswana Diamonds plc African Mining Summit (AMS 2025) Gaborone 15-16 October 2025

  2. Slide 2: Agenda

    African Mining Summit (AMS) 2025 An Artificial Intelligence-driven Approach to Mineral Exploration in Botswana Marsfontein blow pit and dumps when active AGENDA ⧫ Global demand: exploration crisis ⧫ AI foundations: remote sensing, geophysics, data fusion ⧫ Company landscape and case studies ⧫ Cost/t

  3. Slide 3: Global demand: exploration crisis

    Global demand: exploration crisis AMS 2025 3

  4. Slide 4: Global Demand for Critical Minerals

    Global Demand for Critical Minerals ⧫ Energy transition drives unprecedented demand for Cu, Li, Co, Ni, REEs. ⧫ Lithium demand projected >5× by 2040; Ni/Co/REEs to at least double. ⧫ Botswana prospective for Cu– Ni–Co–PGEs alongside diamonds. ⧫ Forecast supply gaps of 30–40% by mid-2030s. Deloitte,

  5. Slide 5: Exploration Crisis: Rising Costs, Fewer Discoveries

    Exploration Crisis: Rising Costs, Fewer Discoveries ⧫ Global discovery rates have gone down 75% since 2010 despite higher spending. ⧫ Greenfield success rate ~0.02% (1 in 5,000 drillholes). ⧫ Deposits under cover need new geoscience and computational tools. ⧫ AI offers systematic, data-driven target

  6. Slide 6: Juniors vs Majors in Discovery

    Juniors vs Majors in Discovery ⧫ >60% of discoveries in the past 20 years by juniors. ⧫ Majors focus on acquisitions; juniors chiefly underfunded with >90% failure rate. ⧫ If the junior is incubated, the failure rate is considerably lower. ⧫ AI reduces risk and improves financing potential for junio

  7. Slide 7: AI foundations: remote sensing, geophysics, data fusion

    AI foundations: remote sensing, geophysics, data fusion AMS 2025 7

  8. Slide 8: Artificial Intelligence in Mineral Exploration

    Artificial Intelligence in Mineral Exploration ⧫ Integrates geology, geochemistry, geophysics, and remote sensing. ⧫ Techniques include Machine Learning, ensembles, and Bayesian frameworks. ⧫ Outputs: prospectivity maps, ranked targets with uncertainty. ⧫ Continuous retraining improves decision qual

  9. Slide 9: Remote Sensing and Geophysical AI

    Remote Sensing and Geophysical AI ⧫ Hyperspectral/UAV imagery mapped with Machine Learning. ⧫ AI inversion of gravity, magnetics, and EM improves subsurface imaging. ⧫ Data fusion across methods reduces ambiguity. ⧫ Rapid screening focuses budgets on highest priority targets. Javan et al, 2024 AMS 2

  10. Slide 10: Data Fusion and Prospectivity Modelling

    Data Fusion and Prospectivity Modelling ⧫ Combines knowledge-driven models with Machine Learning. ⧫ Features: litho-structural context, basin architecture. ⧫ Ensembles yield class probabilities with uncertainty. ⧫ Governance avoids over-fitting and bias. Bell Geospace, 2024 AMS 2025 10

  11. Slide 11: Company landscape and case studies

    Company landscape and case studies AMS 2025 11

  12. Slide 12: Select Companies Applying AI

    Select Companies Applying AI ⧫ KoBold Metals: decision theoretical targeting. ⧫ Earth AI: vertical integration, higher hit rates. ⧫ Planetary AI: Xplore method for transparent prospectivity. ⧫ Specialists: GoldSpot, Mira (geophysics, hyperspectral). Mining Doc, 2024 AMS 2025 12

  13. Slide 13: Case Study: KoBold Metals (Zambia Copper)

    Case Study: KoBold Metals (Zambia Copper) ⧫ Mingomba discovery: largest Cu find in Zambia in a century. ⧫ AI targeting confirmed in ~1 year of drilling. ⧫ Portfolio learning enables redeployment across districts. ⧫ Algorithms prioritise drilling with maximum information. ⧫ Funded by Gates/Bezos with

  14. Slide 14: Case Study: Earth AI (Australia)

    Case Study: Earth AI (Australia) ⧫ ~75% drill-hole success on AI-generated targets. ⧫ Satellite analytics + geological Machine Learning + rapid drilling. ⧫ Cost reductions of ~80% via tighter targeting. ⧫ Data + execution integration improves confidence. Mining.com, 2025 AMS 2025 14

  15. Slide 15: Planetary AI 'Xplore' (Botswana)

    Planetary AI 'Xplore’ (Botswana) ⧫ 57+ deposit models + Machine Learning at basin/country scales. ⧫ Semantic AI grounds Machine Learning in geological context: boosting accuracy, clarifying uncertainty and elevating confidence. ⧫ Transparent prospectivity maps with quantified uncertainty. ⧫ Supports

  16. Slide 16: AI Cost and Time Benefits

    AI Cost and Time Benefits ⧫ AI narrows search space, improves hit ratios. ⧫ Exploration cycles compress with automation (4x faster). ⧫ Discovery cost reduction up to ~80%. ⧫ Industry savings: $300B+ annually by 2035. CleanTech, 2025 AMS 2025 16

  17. Slide 17: Differential Impact: Juniors and Majors

    Differential Impact Juniors Majors ⧫ AI processes legacy datasets ⧫ Portfolio-scale ranking and cheaply. optimisation. ⧫ Raises confidence, improves ⧫ Standardised data pipelines access to capital. enable comparability. ⧫ Outputs are transparent and ⧫ Decision analytics quantify ESG explainable. and

  18. Slide 18: BOD strategy: dataset and AI-screened targets

    BOD strategy: dataset and AI-screened targets AMS 2025 18

  19. Slide 19: Botswana Diamonds plc (BOD): Strategy Overview

    Botswana Diamonds plc (BOD): Strategy Overview ⧫ BOD applies AI to a national-scale archive. ⧫ Partnership with Planetary AI for ground selection. ⧫ Focus on polymetals and diamonds. ⧫ Objective: secure licences, drill-ready targets, JVs. AMS 2025 19

  20. Slide 20: BOD Legacy Dataset (Scale & Composition)

    BOD Legacy Dataset (Scale & Composition) ⧫ Covers ~225,000 km², 383 GB data: ⧫ ~375,000 line km airborne geophysics. ⧫ 606 ground geophysical surveys ⧫ ~358,000 soil sample results. ⧫ ~32,000 drill logs. ⧫ Data standardised and fused for AI. ⧫ Coverage: Ngamiland, SE Botswana, kimberlite terranes. ⧫

  21. Slide 21: BOD Licence Applications: AI-Screened Results

    BOD Licence Applications: AI-Screened Results ⧫ Applications over ~7,500 km². ⧫ 11 polymetallic + 3 kimberlite targets identified. ⧫ Selection based on permissive geology + adjacency. ⧫ Phased acquisition and drilling. AMS 2025 21

  22. Slide 22: BOD's Competitive Advantage

    BOD’s Competitive Advantage Five Pillar approach ⧫ Data. BOD already has an extensive database in Botswana and proposes to acquire more across Southern Africa. ⧫ AI technology. BOD also has access to this through an alliance with Planetary AI Xplore, which utilises a proprietary platform which unloc

  23. Slide 23: Polymetallic and kimberlite examples

    Polymetallic and kimberlite examples AMS 2025 23

  24. Slide 24: BOD Polymetallic Targeting (Example)

    BOD Polymetallic Targeting (Example) ⧫ Ngamiland: Cu-Pb-Zn-Ag ± V, Co, PGEs. ⧫ SE Botswana: Cu-Ni-Co with ultramafic/mafic hosts. ⧫ Historic Zn-Pb-Ag resources validate predictions. ⧫ Next: geochem/EM to refine drill collars. AMS 2025 24

  25. Slide 25: BOD Kimberlite Targeting (Example)

    BOD Kimberlite Targeting (Example) ⧫ KIM populations differentiated to guide dispersion. ⧫ Gravity lows + magnetics identify prospective zones. ⧫ Clusters distal from known fields suggest new pipes. ⧫ Captured in licence applications for drilling. AMS 2025 25

  26. Slide 26: AI vs traditional methods: future of AI

    AI vs traditional methods: future of AI AMS 2025 26

  27. Slide 27: AI vs Traditional Exploration

    AI vs Traditional Exploration ⧫ Traditional: sequential activities, slow feedback. ⧫ AI: parallel hypotheses, probabilistic ranking. ⧫ Explainability supports disciplined budgets. ⧫ Higher conversion, lower discovery cost. RASonly, 2025 AMS 2025 27

  28. Slide 28: Possible Future State (2030–2035)

    Possible Future State (2030–2035) ⧫ District digital twins update in real time. ⧫ Autonomous UAVs/robotic drills with active learning. ⧫ Next-generation sensors probe deeper cover. ⧫ Geologists as data scientists. Yang et al, 2024 AMS 2025 28

  29. Slide 29: Policy, Investment and ESG Context

    Policy, Investment and ESG Context ⧫ Strategic finance favours efficient and successful commercial discovery. ⧫ AI reduces footprint by focusing on the best targets. ⧫ Auditable models aid permitting and engagement. ⧫ Botswana's stable jurisdiction enhances the case. EY.com, 2024 AMS 2025 29

  30. Slide 30: Conclusions and Strategic Outlook

    Conclusions and Strategic Outlook ⧫ AI reshaping discovery economics. ⧫ Botswana is an ideal testbed given the geology/data. ⧫ Juniors increase financing potential, and majors gain optimisation. ⧫ Early adopters will dominate the next cycle. Yang et al, 2024 AMS 2025 30

  31. Slide 31: Thank You: Questions & Discussion

    Thank You Questions & Discussion Photo: Andreas Stelzer AMS 2025 31

  32. Slide 32: About the Author

    About the Author ⧫ James Campbell is Managing Director of Botswana Diamonds plc (a diamond development company active in Botswana, South Africa and Zimbabwe and listed on London AIM and the Botswana Stock Exchange). He has spent over forty years in the diamond industry in a variety of leadership rol

  33. Slide 33: References

    References ⧫ International Energy Agency (2025). Global Critical Minerals Outlook. Paris: IEA. ⧫ Botswana Diamonds plc (2024–2025). Strategy and AI exploration materials. ⧫ Planetary AI. Xplore prospectivity platform overview and method notes. ⧫ KoBold Metals case reports and industry coverage (e.g.

  34. Slide 34: Contact details

    162 Clontarf Road Clontarf Dublin 3 Ph: +27 83 457 3724 Web: www.botswanadiamonds.co.uk Twitter: @BotswanaDiamond Email: james@botswanadiamonds.co.uk AMS 2025 34

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