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Mining Engineering Principles: Exploration to Innovation Course
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Mining Engineering Principles: Exploration to Innovation Course

Master every stage of the mining value chain — from exploration and resource estimation to processing, closure, and emerging innovation. This comprehensive course equips engineers and technical professionals with the analytical tools, design methods, and industry frameworks needed to drive safe, efficient, and sustainable mining operations.

Dedika for students

What your team will master:

  • Classify mineral resources using internationally recognised confidence frameworks and reporting standards.

  • Design open-pit and underground mining systems matched to deposit geometry and ground conditions.

  • Build mine feasibility studies that integrate production scheduling, cost estimation, and financial modelling.

  • Apply hazard identification and risk assessment methods to strengthen mine safety management systems.

  • Develop environmental impact assessments, acid mine drainage controls, and mine closure plans.

  • Evaluate autonomous equipment, digital twins, and battery-electric technology for operational improvement.

How your team learns in practice Mining Engineering Principles: Exploration to Innovation Course

How your team practises Mining Engineering Principles: Exploration to Innovation Course

Professionals from these companies study at Dedika

ActemiumFR
Nunner LogisticsNL
GT Constructora GeotécnicaCR
Sydel StarBR
Metrô de São PauloBR
Aguas AndinasCL
DSMIN
MeridianbetRS
CDHCN

Course content

8 Chapters • 40 LessonsDuration between 4 and 360 hours (you decide)

Chapter 1See details

Foundations of Mining Engineering

  • Lesson 1 • Mining Industry Structure and Stakeholders

    Maps the roles of operators, contractors, regulators, and communities. Makes it clear how decisions flow through the industry ecosystem.

  • Lesson 2 • Core Engineering Disciplines in Mining

    Introduces geology, geotechnical, mechanical, and environmental engineering roles. Shows how disciplines work together over a mine's life cycle.

  • Lesson 3 • Mine Life Cycle Overview

    Outlines exploration, development, production, and closure phases. Sets the framework used throughout the whole course.

  • Lesson 4 • Mineral Types and Economic Significance

    Classifies metallic, non-metallic, and energy minerals by economic use. Links commodity type to extraction method selection.

  • Lesson 5 • History and Evolution of Mining

    Traces mining from ancient extraction to modern mechanised operations. Gives the historical context that frames all later technical content.

Chapter 2See details

Mineral Exploration and Resource Estimation

  • Lesson 1 • Economic Cutoff Grade Analysis

    Calculates breakeven cutoff grades using cost and price inputs. Links resource estimation directly to economic viability decisions.

  • Lesson 2 • Geological Mapping and Remote Sensing

    Covers surface mapping techniques and satellite-based data acquisition. Builds the spatial awareness needed for targeted exploration programmes.

  • Lesson 3 • Drilling Programmes and Core Analysis

    Explains rotary, diamond, and reverse-circulation drilling methods. Links drill programme design to reliable subsurface data collection.

  • Lesson 4 • Resource Classification Frameworks

    Applies internationally recognised confidence categories to mineral inventories. Enables students to assign inferred, indicated, and measured classifications.

  • Lesson 5 • Geostatistics and Grade Estimation

    Introduces variography, kriging, and block modelling for grade interpolation. Gives you the quantitative tools to build reliable resource models.

Chapter 3See details

Mine Planning and Feasibility Studies

  • Lesson 1 • Production Scheduling and Sequencing

    Applies scheduling logic to maximise net present value while meeting operational targets. Links schedule outputs to capital and operating cost profiles.

  • Lesson 2 • Capital and Operating Cost Estimation

    Structures cost estimates using factored, parametric, and bottom-up methods. Provides the financial inputs needed for feasibility decision-making.

  • Lesson 3 • Scoping and Prefeasibility Studies

    Defines the purpose and accuracy requirements of early-stage studies. Sets the decision gates that govern project advancement.

  • Lesson 4 • Mine Design Criteria and Constraints

    Identifies geotechnical, environmental, and infrastructure constraints that shape design. Translates constraints into actionable design parameters.

  • Lesson 5 • Feasibility Study Integration and Reporting

    Assembles technical, environmental, and financial sections into a complete feasibility document. Prepares students to present findings to decision-makers.

Chapter 4See details

Surface Mining Methods and Operations

  • Lesson 1 • Surface Mine Water Management

    Designs dewatering, diversion, and runoff control systems for surface operations. Prevents water-related disruptions and environmental non-compliance.

  • Lesson 2 • Loading and Hauling Systems

    Evaluates shovel-truck, conveyor, and in-pit crushing systems for material movement. Matches equipment selection to production rate and cost targets.

  • Lesson 3 • Open-Pit Design Fundamentals

    Applies slope stability and pit optimisation principles to open-pit geometry. Links design choices to ore recovery and waste management outcomes.

  • Lesson 4 • Drilling and Blasting in Surface Mines

    Covers blast design, explosive selection, and fragmentation prediction for surface operations. Makes sure rock breaking is safe and productive.

  • Lesson 5 • Strip Mining and Highwall Operations

    Examines dragline, bucket-wheel, and auger methods for flat-lying deposits. Addresses overburden management and spoil placement strategies.

Chapter 5See details

Underground Mining Methods and Operations

  • Lesson 1 • Caving Methods and Mass Mining

    Explains block caving, sublevel caving, and longwall mechanics for high-tonnage extraction. Addresses subsidence prediction and drawpoint management.

  • Lesson 2 • Supported and Unsupported Mining Methods

    Compares room-and-pillar, cut-and-fill, and open stoping for varying ground conditions. Guides method selection based on ore geometry and rock mass quality.

  • Lesson 3 • Underground Access and Development

    Covers shaft, decline, and adit development for underground access. Sets the infrastructure foundation for all underground production methods.

  • Lesson 4 • Underground Rock Support Systems

    Selects and designs bolting, shotcrete, and steel arch support for excavation stability. Integrates ground support with geotechnical monitoring programmes.

  • Lesson 5 • Underground Ventilation and Air Quality

    Designs primary and auxiliary ventilation circuits to meet airflow and contaminant standards. Makes sure workers stay healthy and equipment works well underground.

Chapter 6See details

Mineral Processing and Metallurgy

  • Lesson 1 • Flotation Principles and Circuit Design

    Explains reagent chemistry, cell hydrodynamics, and circuit configuration for flotation. Optimises recovery and grade through reagent and circuit adjustments.

  • Lesson 2 • Physical Separation Techniques

    Applies gravity, magnetic, and electrostatic separation to concentrate valuable minerals. Matches separation method to ore mineralogy and liberation characteristics.

  • Lesson 3 • Comminution: Crushing and Grinding

    Covers jaw, cone, and SAG mill circuits for size reduction of run-of-mine ore. Links energy consumption to liberation size and downstream recovery.

  • Lesson 4 • Hydrometallurgical Processing

    Covers leaching, solvent extraction, and electrowinning for metal recovery from solution. Addresses reagent management and solution purification steps.

  • Lesson 5 • Tailings Management and Dewatering

    Designs thickening, filtration, and tailings storage systems for processed residues. Integrates water recovery with environmental compliance requirements.

Chapter 7See details

Mine Safety, Health, and Risk Management

  • Lesson 1 • Hazard Identification and Risk Assessment

    Applies HAZID, FMEA, and bow-tie methods to mining hazard scenarios. Builds the analytical foundation for all risk control decisions.

  • Lesson 2 • Occupational Health and Dust Management

    Controls silica, coal dust, and diesel particulate exposures to protect worker health. Links exposure monitoring to engineering and administrative controls.

  • Lesson 3 • Ground Control and Geotechnical Safety

    Manages rockfall, slope failure, and seismic hazards through monitoring and engineering controls. Directly reduces the leading cause of mining fatalities.

  • Lesson 4 • Emergency Response and Mine Rescue

    Designs emergency response plans for fire, inundation, and entrapment scenarios. Prepares teams to carry out coordinated rescue operations effectively.

  • Lesson 5 • Safety Management Systems and Culture

    Implements plan-do-check-act safety management frameworks and leading indicator programmes. Shifts organisations from reactive to proactive safety performance.

Chapter 8See details

Environmental Management and Mine Closure

  • Lesson 1 • Environmental Impact Assessment

    Structures baseline studies, impact prediction, and mitigation planning for mining projects. Provides the regulatory foundation for project approval.

  • Lesson 2 • Waste Rock and Tailings Facility Management

    Designs stable waste rock dumps and tailings storage facilities with long-term integrity. Addresses geotechnical and geochemical risks throughout the facility life.

  • Lesson 3 • Mine Closure Planning and Financial Assurance

    Develops closure cost estimates and financial assurance instruments for regulatory compliance. Makes sure there is enough funding for all post-closure obligations.

  • Lesson 4 • Acid Mine Drainage Prevention and Treatment

    Identifies sulfide oxidation pathways and applies passive and active treatment systems. Prevents the most persistent environmental liability in mining.

  • Lesson 5 • Biodiversity and Land Rehabilitation

    Applies progressive rehabilitation and revegetation to restore disturbed land. Integrates biodiversity offsets with post-mining land use planning.

Certification

Your valid completion certificate

This course is for you:

  • Mining technician: ready to build the engineering theory behind daily site tasks.

  • Geology graduate: seeking to connect resource work to mine planning and operations.

  • Environmental consultant: wanting to understand the full mining context they advise on.

  • Civil or mechanical engineer: transitioning into the mining sector from another industry.

  • Project finance analyst: needing technical grounding to evaluate mining investment decisions.

  • Safety professional: aiming to deepen technical knowledge across all mining disciplines.

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