
Mining Engineer Course
Master the full spectrum of mining engineering — from resource estimation and mine design to ventilation, safety, and project economics. This course delivers the technical depth and practical tools that working engineers and aspiring professionals need to perform at the highest level on any mine site.
What you will learn:
You will build a complete foundation in mining engineering, covering geology essentials, mineral resource estimation, open-pit and underground mine design, rock mechanics, drilling and blasting, ventilation, dewatering, and safety management. You will also gain working knowledge of mine economics, environmental management, mineral processing, and emerging automation technologies. Each topic connects directly to real engineering decisions made across the mine lifecycle. By the end, you will be equipped to contribute to resource reporting, production scheduling, ground control, and risk management with confidence and technical precision.
How you study in practice Mining Engineer Course
How you practise Mining Engineer Course
For companies looking to train their teams
With Dedika for businesses, the course includes exercises and examples tailored to your company and its specific needs.
Course content
8 Chapters • 38 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Mining Engineering
Foundations of Mining Engineering
Lesson 1 • Types of Mining Operations
Distinguishes surface, underground, and placer mining methods by geology and economics. Provides the classification framework used throughout the course.
Lesson 2 • Mining Engineering Roles and Ethics
Defines the engineer's technical, managerial, and ethical responsibilities. Establishes professional standards and codes of conduct that govern practice.
Lesson 3 • Geology Essentials for Mining Engineers
Covers rock types, structural geology, and ore deposit classification relevant to mine planning. Builds geological literacy needed for resource estimation and method selection.
Lesson 4 • Overview of the Mining Industry
Introduces global mining sectors, commodity types, and economic significance. Connects industry context to the engineer's professional scope and decision-making environment.
Chapter 2HideHide detailsSee detailsMineral Resource Estimation
Mineral Resource Estimation
Lesson 1 • Geostatistics and Variography
Introduces spatial continuity analysis through variogram modelling. Variogram parameters directly control interpolation accuracy in block models.
Lesson 2 • Sampling Theory and Practice
Explains sampling errors, protocols, and quality assurance for reliable data collection. Accurate sampling underpins all subsequent resource estimation work.
Lesson 3 • Exploratory Data Analysis
Applies statistical tools to assay datasets to identify grade distributions and outliers. Results guide compositing and domain definition decisions.
Lesson 4 • Block Modelling and Grade Interpolation
Constructs 3-D block models and applies kriging and inverse-distance methods. Students evaluate estimation quality using validation statistics.
Lesson 5 • Resource Reporting Standards
Covers internationally recognised frameworks for classifying and publicly reporting mineral resources. Ensures compliance with competent-person reporting obligations.
Chapter 3HideHide detailsSee detailsMine Planning and Design
Mine Planning and Design
Lesson 1 • Economic Cut-Off Grade Analysis
Derives cut-off grades using cost, price, and recovery parameters to define ore and waste. Cut-off grade selection directly shapes mine design boundaries.
Lesson 2 • Open-Pit Design Principles
Applies pit optimisation algorithms and slope stability constraints to generate final pit limits. Students design pushbacks and haul-road alignments within the optimised shell.
Lesson 3 • Underground Mine Layout Design
Designs access development, level spacing, and stope layouts for underground operations. Connects orebody geometry to infrastructure placement and ore flow.
Lesson 4 • Mine Design Software Applications
Demonstrates industry-standard software workflows for pit design, underground layout, and scheduling. Builds practical digital competency applied throughout the course.
Lesson 5 • Production Scheduling and Sequencing
Builds short- and long-term production schedules that balance grade, tonnage, and equipment capacity. Schedules are evaluated against net present value and cash-flow targets.
Chapter 4HideHide detailsSee detailsRock Mechanics and Ground Control
Rock Mechanics and Ground Control
Lesson 1 • Slope Stability Analysis
Evaluates planar, wedge, and circular failure modes in open-pit and waste-dump slopes. Stability analysis results set safe inter-ramp and overall slope angles.
Lesson 2 • Underground Support Design
Selects and dimensions rock bolts, shotcrete, and steel sets for underground excavations. Support design is validated against rock mass classification and loading conditions.
Lesson 3 • Seismic Hazard and Rockburst Management
Identifies seismic risk in deep mines and applies mitigation strategies to protect workers. Integrates monitoring data with operational controls to reduce rockburst exposure.
Lesson 4 • Rock Mass Characterisation
Quantifies rock mass quality using index tests and classification systems. Classification outputs feed directly into support design and excavation stability assessments.
Lesson 5 • In-Situ Stress and Stress Analysis
Measures and interprets in-situ stress fields and their effect on excavation stability. Stress redistribution around openings governs failure mode and support demand.
Chapter 5HideHide detailsSee detailsDrilling, Blasting, and Fragmentation
Drilling, Blasting, and Fragmentation
Lesson 1 • Underground Blast Design
Applies cut-and-fill, ring, and development blast designs to confined underground headings. Confinement and free-face geometry require specialised design approaches.
Lesson 2 • Blast Performance and Environmental Controls
Measures fragmentation, vibration, airblast, and flyrock to evaluate and improve blast outcomes. Environmental controls ensure compliance with community and regulatory limits.
Lesson 3 • Drilling Equipment and Operations
Covers rotary, percussive, and DTH drilling systems used in surface and underground mines. Equipment selection and operational parameters affect hole quality and blast performance.
Lesson 4 • Explosives Properties and Selection
Explains explosive chemistry, detonation physics, and product classification for mining use. Correct explosive selection matches energy output to rock mass and fragmentation goals.
Lesson 5 • Blast Design for Surface Mines
Designs burden, spacing, stemming, and delay timing for open-pit production blasts. Parameters are optimised to meet fragmentation, muck-pile, and vibration targets.
Chapter 6HideHide detailsSee detailsMine Ventilation and Environmental Control
Mine Ventilation and Environmental Control
Lesson 1 • Ventilation Fundamentals
Introduces airflow physics, pressure-quantity relationships, and mine network behaviour. These principles underpin all ventilation system design and analysis tasks.
Lesson 2 • Mine Climate and Heat Management
Analyses heat sources and applies cooling strategies to maintain safe working temperatures. Thermal management is critical in deep and hot mines.
Lesson 3 • Ventilation Planning Software
Uses network simulation software to model airflow, pressure, and contaminant distribution. Simulation results validate designs before physical implementation.
Lesson 4 • Contaminant Control Underground
Quantifies diesel particulate, blast fumes, and dust to set dilution airflow requirements. Contaminant control protects worker health and meets occupational exposure limits.
Lesson 5 • Fan Selection and System Design
Matches fan characteristic curves to mine resistance to select main and booster fans. System design balances airflow distribution, energy consumption, and redundancy.
Chapter 7HideHide detailsSee detailsMine Dewatering and Hydrogeology
Mine Dewatering and Hydrogeology
Lesson 1 • Water Management and Discharge
Manages mine water quality, storage, and discharge to meet environmental standards. Integrates water balance modelling with treatment and reuse strategies.
Lesson 2 • Dewatering System Design
Designs sump, pump, and drainage networks to manage predicted inflows in surface and underground mines. System reliability and redundancy are critical design criteria.
Lesson 3 • Hydrogeological Site Assessment
Characterises aquifer types, hydraulic conductivity, and recharge sources at mine sites. Site assessment data drives inflow prediction and dewatering system design.
Lesson 4 • Groundwater Inflow Prediction
Applies analytical and numerical methods to forecast mine inflows at various excavation stages. Accurate inflow prediction sizes pumping capacity and drainage infrastructure.
Chapter 8HideHide detailsSee detailsMine Safety, Health, and Risk Management
Mine Safety, Health, and Risk Management
Lesson 1 • Incident Investigation and Learning
Applies root-cause analysis methods to investigate incidents and prevent recurrence. Effective investigation drives systemic improvement rather than blame assignment.
Lesson 2 • Safety Management Systems
Structures safety policies, procedures, and performance monitoring into a management system. Systematic management sustains safety performance beyond individual interventions.
Lesson 3 • Major Mining Hazard Controls
Addresses controls for ground fall, inrush, fire, explosion, and mobile equipment hazards. Each hazard type requires specific engineering and administrative controls.
Lesson 4 • Hazard Identification and Risk Assessment
Applies structured methods to identify mining hazards and quantify risk levels. Risk assessment outputs prioritise controls and inform safety management plans.
Lesson 5 • Emergency Preparedness and Response
Develops emergency response plans for mine-specific scenarios including entrapment and fire. Plans are tested through drills and continuously improved after exercises.
Your valid completion certificate
This course is for you:
Geology graduates: looking to pivot into mine engineering roles.
Junior mining engineers: wanting to close technical knowledge gaps fast.
Civil engineers: transitioning into the extractive resources industry.
Mine site supervisors: seeking formal grounding behind their field experience.
Environmental consultants: working on mine projects and needing engineering context.
Career changers: drawn to mining by strong global commodity demand.
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