
Mining Engineering Course
Master the full spectrum of mining engineering, from ore deposit characterisation and excavation design to mineral processing and mine closure. This course gives you the technical foundation and practical tools used by working engineers on real mine sites. Whether you are entering the industry or advancing your career, you will graduate ready to contribute at every stage of a mining project.
What you will learn:
This course covers every major discipline a mining engineer needs to operate effectively in the field and in the office. You will study geology, rock mechanics, surface and underground mining methods, ventilation, and mineral processing. You will also learn how to build economic models, conduct feasibility studies, and develop mine closure plans. Safety management, environmental compliance, tailings design, and modern automation technologies are all included. By the end, you will have a comprehensive, integrated understanding of how mines are planned, built, operated, and closed responsibly.
How you study in a practical way Mining Engineering Course
How you practise Mining Engineering Course
For companies looking to train their teams
With Dedika for businesses, the course includes exercises and examples tailored to your own business and the way your company needs.
Course content
8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Mining Engineering
Foundations of Mining Engineering
Lesson 1 • Mineral Resources and Commodity Types
Classifies metallic, non-metallic, and energy minerals by formation and economic use. Connects resource type to extraction method selection.
Lesson 2 • Mine Types and Extraction Concepts
Distinguishes surface, underground, and in-situ mining configurations. Introduces selection criteria linking deposit geometry to mine type.
Lesson 3 • History and Evolution of Mining
Traces mining from ancient extraction to modern mechanised operations. Provides context for understanding why current practices and regulations developed as they did.
Lesson 4 • The Mining Engineering Profession
Defines the engineer's responsibilities across planning, operations, and closure phases. Situates the role within multidisciplinary project teams.
Lesson 5 • Regulatory and Environmental Framework
Surveys permitting, safety mandates, and environmental compliance obligations governing mines. Establishes the regulatory context applied throughout the course.
Chapter 2HideHide detailsSee detailsGeology and Ore Deposit Characterisation
Geology and Ore Deposit Characterisation
Lesson 1 • Resource and Reserve Classification
Applies internationally recognised frameworks to classify measured, indicated, and inferred resources. Distinguishes resources from mineable reserves using modifying factors.
Lesson 2 • Exploration Techniques and Data Collection
Covers geophysical, geochemical, and drilling methods used to delineate ore bodies. Emphasises data quality control critical for resource estimation.
Lesson 3 • Geostatistics and Grade Estimation
Introduces variogram analysis and kriging for spatial grade interpolation. Demonstrates how estimation uncertainty affects mine planning decisions.
Lesson 4 • Rock Types and Geological Structures
Reviews igneous, sedimentary, and metamorphic rock properties relevant to mining. Links structural features such as faults and folds to ore localisation.
Lesson 5 • Ore Deposit Genesis and Classification
Explains hydrothermal, magmatic, sedimentary, and supergene deposit origins. Connects genesis model to expected grade distribution and geometry.
Chapter 3HideHide detailsSee detailsRock Mechanics and Ground Control
Rock Mechanics and Ground Control
Lesson 1 • Slope Stability Analysis
Analyses planar, wedge, and circular failure modes in open-pit and waste dump slopes. Quantifies factor of safety and identifies mitigation measures.
Lesson 2 • Rock Mass Classification Systems
Applies RMR, Q-system, and GSI to characterise rock mass quality. Links classification outputs to support design recommendations.
Lesson 3 • Rock Strength and Failure Criteria
Presents laboratory testing methods and failure criteria for intact rock and discontinuities. Provides strength parameters required for stability analysis.
Lesson 4 • Underground Ground Support Design
Selects rock bolts, shotcrete, and steel sets based on rock mass conditions. Integrates support design with excavation sequencing for safe underground operations.
Lesson 5 • Stress and Strain in Rock Masses
Defines in-situ stress states and elastic rock behaviour under load. Establishes the mechanical framework used in all subsequent excavation design.
Chapter 4HideHide detailsSee detailsSurface Mining Methods and Design
Surface Mining Methods and Design
Lesson 1 • Production Scheduling and Pushback Design
Sequences pushbacks to meet grade, tonnage, and cash flow targets over mine life. Integrates scheduling with equipment availability and ore blending requirements.
Lesson 2 • Drilling and Blasting in Surface Mines
Designs blast patterns, explosive selection, and initiation sequences for bench blasting. Addresses fragmentation prediction and blast damage control.
Lesson 3 • Open-Pit Geometry and Pit Limits
Defines bench height, berm width, overall slope angle, and ultimate pit boundary. Applies economic pit limit algorithms to maximise net present value.
Lesson 4 • Loading and Hauling Systems
Matches excavator and truck capacities to production targets and haul profiles. Evaluates cycle time, fleet size, and haul road design standards.
Lesson 5 • Strip Mining and Dragline Operations
Applies strip mining geometry to flat-lying coal and mineral deposits. Covers dragline reach, swing angle, and spoil placement planning.
Chapter 5HideHide detailsSee detailsUnderground Mining Methods and Design
Underground Mining Methods and Design
Lesson 1 • Underground Mine Development
Plans shaft, decline, and level development to access ore zones. Covers excavation sequencing, ventilation requirements, and infrastructure placement.
Lesson 2 • Caving Methods and Mass Mining
Covers block caving, sublevel caving, and panel caving for large, low-grade deposits. Evaluates caveability, draw control, and subsidence management.
Lesson 3 • Cut-and-Fill and Shrinkage Stoping
Applies cut-and-fill to narrow, high-grade, or weak-rock deposits requiring tight grade control. Compares hydraulic, paste, and rock fill options.
Lesson 4 • Room-and-Pillar and Stope Mining
Designs pillar dimensions and extraction ratios for room-and-pillar operations. Extends to rib pillar and open stope configurations in stronger rock.
Lesson 5 • Sublevel and Longhole Stoping
Designs sublevel intervals, ring drilling patterns, and drawpoint layouts for bulk extraction. Addresses dilution control and ore recovery optimization.
Chapter 6HideHide detailsSee detailsMine Ventilation and Environmental Control
Mine Ventilation and Environmental Control
Lesson 1 • Heat Stress and Thermal Control
Quantifies heat sources from autocompression, machinery, and rock to predict wet-bulb temperatures. Designs refrigeration and cooling systems for deep mines.
Lesson 2 • Fundamentals of Mine Airflow
Applies fluid mechanics principles to airflow through mine networks. Establishes pressure-quantity relationships used in ventilation circuit design.
Lesson 3 • Ventilation Network Design
Balances airflow distribution across parallel and series circuits using network analysis. Designs main, booster, and auxiliary fan installations.
Lesson 4 • Mine Gases and Explosion Prevention
Characterizes methane, carbon monoxide, and diesel exhaust hazards in underground workings. Applies detection, dilution, and isolation controls to prevent ignition.
Lesson 5 • Dust Control and Respiratory Hazards
Identifies respirable dust sources and applies engineering controls to meet exposure limits. Covers wet drilling, water sprays, and enclosure strategies.
Chapter 7HideHide detailsSee detailsMineral Processing and Metallurgy
Mineral Processing and Metallurgy
Lesson 1 • Comminution: Crushing and Grinding
Applies size reduction theory to crusher and mill selection and circuit design. Links energy consumption to target product size and ore hardness.
Lesson 2 • Hydrometallurgy and Leaching
Covers heap leaching, agitation leaching, and solvent extraction for gold, copper, and uranium. Evaluates reagent consumption, recovery, and environmental controls.
Lesson 3 • Gravity and Dense-Medium Separation
Exploits density differences to pre-concentrate or recover heavy minerals. Evaluates jigs, spirals, shaking tables, and dense-medium cyclones.
Lesson 4 • Froth Flotation Principles and Design
Applies surface chemistry to selectively float sulfide, oxide, and industrial minerals. Designs reagent schemes, cell sizing, and circuit configuration.
Lesson 5 • Pyrometallurgy and Refining
Examines smelting, converting, and refining operations for base and precious metals. Connects process outputs to product quality specifications and by-product recovery.
Chapter 8HideHide detailsSee detailsMine Planning, Economics, and Closure
Mine Planning, Economics, and Closure
Lesson 1 • Mine Closure and Land Rehabilitation
Plans progressive and final closure activities to meet regulatory and community commitments. Designs landform, revegetation, and water management for long-term stability.
Lesson 2 • Risk Assessment and Management
Identifies technical, market, and geopolitical risks using structured risk registers. Applies quantitative risk analysis to inform contingency and mitigation planning.
Lesson 3 • Mine Economic Evaluation
Applies discounted cash flow, NPV, IRR, and payback period to rank project alternatives. Conducts sensitivity and scenario analysis on key value drivers.
Lesson 4 • Feasibility Study Development
Structures scoping, pre-feasibility, and feasibility study components and accuracy levels. Defines capital and operating cost estimation methodologies for each study stage.
Lesson 5 • Environmental Impact and Management Plans
Develops baseline studies, impact predictions, and management plans for air, water, and land. Links environmental commitments to operational monitoring programs.
Your valid completion certificate
This course is for you:
Engineering student: building a specialization before entering the job market.
Geology graduate: expanding skills toward mine planning and resource evaluation.
Civil or mechanical engineer: transitioning into the mining sector professionally.
Mine site technician: seeking the engineering knowledge needed for promotion.
Environmental consultant: needing deeper technical context for mining project work.
Career changer: drawn to resources and infrastructure from an unrelated background.
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