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This comprehensive analysis delves into the emerging skills shortage in the minerals industry, potential constraints on future sustainable development, and opportunities for growth. From changes in the mining industry to the impacts of demographics and demand on exploration and critical skills, the text explores the various facets influencing the sector. It covers topics such as supply-demand dynamics, cost escalation, technological advancements, political and environmental factors, and the importance of sustainable practices. The discussion also delves into constraints on development, the need for critical skills, and the emerging opportunities for companies in attracting and retaining talent. Through insights on exploration, project development, and the crucial role of skilled personnel, this text serves as a valuable resource for industry professionals navigating these challenges and seeking sustainable growth.
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The emerging skills shortage in the minerals industry - potential constraints on future sustainable development John Thompson
Outline Mining Industry – changes and challenges People – demographics and demand Exploration – geoscientists and skills Area selection Target generation and testing Evaluation and development Critical skills – concerns Constraints on development Opportunities
Industry – the last ten years The resurgence of the resource business Supply-demand – high commodity prices Opportunities and challenges: Markets – capital and consolidation Discovery Cost escalation Technology Politics, environment, health and safety, communities - sustainability
Supply – demand • Supply constraints • Low discovery rate – relative to expenditure • Limited effective grass roots exploration, technical challenges, land access, people • Cost escalation – materials, energy, labour • Development & mining – labour, skills • Politics and social/cultural issues • Demand • China, India etc…. Future? Sustained prices? Volatility
The people picture • Demand • New projects and expansions • Limited hiring – a lost decade • Demographics • “Retirements” – loss of knowledge • Job pressure – early retirement, life style • Competition • Location • Image
Exploration – people skills • The role of the geoscientist • Early stage – generation • Projects – evaluation • Business – management
Early stage – Generation • Understanding the target – metallogeny • Using available public data • Developing the concept • Testing the concept • Acquiring the “right” data
Project exploration • Target definition • Intelligent collection and use of data • Target testing – drilling • Logging drill core/chips • Interpreting results • Exit strategy
Understanding the model • Classic 2D geological models • Extrapolation to 3D • Building from experience • Resisting dogma – dealing with uncertainty • Empirical v theoretical models • e.g., IOCG – major deposit class but no adequate exploration model
Data and modeling Targeting: Data quality Variables Assumptions
Interpretation 3D Models: • Organize & integrate data • Interrogate & visualize results
Project development • Communities • Resource evaluation • Geometallurgy • Mining and processing • Environment
Using the data • Exploration to resource • Understanding deposits • Delineation, evaluation • Resource model • Resource to mine • Geotechnical data • Ore characterization • Waste characterization Geometallurgy
Geometallurgy • Define mining/processing characteristics • Start-up risk mitigation • Mine site optimization and integration • Predict mining/processing results from geological characteristics • A new skill set using mineralogical and textural data
Geometallurgy • Current geometallurgical tests • Relatively expensive – hence limited to a few (composite) samples • May not reflect or define inherent variability • New cost-effective methods – better use of mineralogical, chemical and physical data • Generate enough data to be spatially representative and predictive
Geometallurgical models Incorporate data into resource models • Potential • Total economic optimization • Optimize flowsheet/plant size • Reduce technical risk Liberation Grinding Recovery Crushing Disposal & environment Blasting
Critical skills - concerns • Field • Observations – rock, drill core/chips, outcrops • Interpretation – regional to project scales • Experience – time on the rocks • Leadership • Technical and non-technical skills
Loss of field skills • Fundamental for exploration • Observations – outcrop to drill core • Experience – 3D interpretation • Lack of emphasis in education • Inadequate training - industry/government
Leadership • Challenges • Range of projects • Managing uncertainty • Risk analysis • Team leadership • Attributes and skills • Presentation and salesmanship • Cultural/social awareness • Determination and flexibility • A people business
Constraints on discovery & development • Discovery • People and budgets (market conditions) • Skills, expertise and determination • Politics – land access • Development • Land-politics, energy, water, and costs • People – mining engineering and metallurgy • Finding the “A” team • Creativity and rigour (geometallurgy!)
Constraints on different players • Majors • Good budgets – focus, speed, awareness? • Expertise and teams – commitment? • Approach/ability to work with juniors? • Juniors • Funding – understanding the options? • Staff – business and technical demands • Balanced portfolios • Breadth v focus – frontier v mature • Technical risk v non-technical risk
Opportunities • Companies • Attract and retain the right people • Use people in the right place • Career development and flexibility • Invest in education – build capacity • Universities • Provide fundamental education • Introduce breadth and application
For the geoscientist • Mining industry – • Enormous opportunities – career advancement • Adventure, diversity, challenge • Geoscientists are capable of anything • Quantitative and qualitative science • Interpret vast amounts of complex data • Deal with uncertainty • Work with people • Leaders – CEOs……