Mining Engineering roadmap

Mine geology, extraction, safety and mineral processing.

Start with Mining Fundamentals, follow the steps in order, then build a project, prepare for interviews and earn your certificate.

Foundations

  1. Mining Fundamentals — From a rock outcrop to a producing mine. The foundation of mining engineering: the life cycle of a mine, how resources and reserves are defined, cut-off grade and mine economics, choosing between surface and underground methods, and mining responsibly — acid drainage, closure and sustainability.
  2. Mine Geology — Understanding where the ore is — and why. The geology every mining engineer needs: rocks and ore minerals, how ore deposits form, geological structures and their measurement, exploration and drilling, and estimating resources with block models, inverse-distance weighting and kriging.
  3. Surface Mining — Open pits, strip mines and quarries. Designing and running mines open to the sky: open-pit geometry and stripping ratios, bench and haul-ramp design, strip mining and quarrying with draglines, pit optimisation with the Lerchs–Grossmann algorithm, and production scheduling and blending.
  4. Underground Mining — Shafts, pillars, stopes and caves. Mining below the surface: accessing the orebody with shafts, declines and adits; room-and-pillar and longwall methods for flat seams; stoping methods for metal mines; and mass caving for giant low-grade orebodies — with pillar design, hoisting and production calculations.

Core skills

  1. Rock Mechanics — How rock behaves when we dig into it. The science of rock stability: intact rock properties and lab tests, rock-mass classification (RQD, RMR, Q, GSI), in-situ stresses and stress around openings, rock-slope stability for open pits, and ground support design with bolts, cables and shotcrete.
  2. Blasting — Breaking rock with controlled energy. Drill-and-blast engineering: explosives and initiation systems, bench blast design (burden, spacing, stemming, subdrill, powder factor), fragmentation prediction with the Kuz-Ram model, ground vibration and airblast control, and controlled blasting for stable walls.
  3. Mine Ventilation — Fresh air for people, machines and safety. Designing the airflow that keeps underground mines breathable and safe: airflow requirements for people, diesel equipment and gas dilution; airway resistance and Atkinson's equation; ventilation networks and fans; mine gases; and heat, autocompression and refrigeration in deep mines.
  4. Mineral Processing — Turning ore into saleable concentrate. How ore becomes concentrate: comminution (crushing and grinding with Bond's law), screening and classification, gravity separation, froth flotation with grade–recovery balances and kinetics, and dewatering and tailings management.

Advanced

  1. Mine Safety — Everyone goes home safe, every shift. Protecting miners and communities: major mining hazards and safety statistics, emergency preparedness and mine rescue, occupational health (dust, silica, noise, diesel), tailings dam safety, and risk management with bowties and critical controls.
  2. Mine Surveying — Measuring the mine from surface to stope. The measurement backbone of mining: coordinates and traverses, levelling, total stations and GNSS, underground surveying through shafts and drives, volume and stockpile calculations, and drones and laser scanning for modern mine mapping.
  3. Mining Equipment — The machines that move mountains. Selecting, sizing and managing mining machines: drills, shovels, excavators and loaders, haul trucks with rimpull and fleet matching, conveyors and hoists, and equipment reliability, availability and cost per tonne.
  4. Automation in Mining — Autonomous, connected and intelligent mines. The digital mine: autonomous haulage and drilling, teleremote operation from control centres, IoT sensors, networks and digital twins, mine planning software and data workflows, and AI for ore sorting, prediction and optimisation — with working Python examples.

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