
Mining Geotechnics Course
Master the geotechnical principles that keep mines safe, productive, and compliant. This course covers slope stability, rock mass characterization, underground excavation design, tailings facilities, and seismic hazard management. Build the technical skills that mining operations demand from qualified geotechnical professionals.
What you will learn:
You will develop a thorough understanding of rock and soil mechanics as applied to real mining environments. The course covers open pit slope stability analysis, underground excavation design, and ground support selection across a range of ground conditions. You will learn to characterize rock masses using industry-standard classification systems and manage geotechnical data effectively. Waste dump and tailings facility design, seepage analysis, and seismic hazard assessment are also addressed in detail. You will gain practical skills in geotechnical instrumentation, monitoring program design, and risk management reporting that meet regulatory and operational standards.
How you study in practice Mining Geotechnics Course
How you practice Mining Geotechnics 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 • 41 LessonsDuration between 4 and 360 hours (you decide)
Chapter 1HideHide detailsSee detailsFoundations of Mining Geotechnics
Foundations of Mining Geotechnics
Lesson 1 • Introduction to Mining Geotechnics
Defines geotechnics within the mining context and outlines its role in safety and production. Sets the framework for all subsequent technical content.
Lesson 2 • Groundwater Fundamentals in Mining
Presents hydrogeological concepts relevant to mine stability and drainage. Establishes pore pressure principles used in slope and underground analysis.
Lesson 3 • Rock and Soil Classification
Covers standard classification systems for intact rock and soil used in mine design. Provides the vocabulary and criteria applied throughout the course.
Lesson 4 • Basic Rock Mechanics Principles
Introduces stress, strain, and deformation concepts in rock masses. Builds the mechanical foundation required for stability analysis in later chapters.
Lesson 5 • Geological Structures and Discontinuities
Examines faults, joints, bedding, and foliation as controls on rock mass behavior. Links structural geology to geotechnical design decisions.
Chapter 2HideHide detailsSee detailsRock Mass Characterization
Rock Mass Characterization
Lesson 1 • Laboratory Testing of Rock and Soil
Describes standard laboratory tests for strength, deformability, and index properties. Links test results to design parameters used in stability models.
Lesson 2 • Field Data Collection Methods
Covers scanline mapping, window mapping, and drill core logging for geotechnical data. Ensures consistent, reliable input for rock mass classification.
Lesson 3 • Geotechnical Data Management
Addresses database design, quality control, and data workflows for geotechnical projects. Ensures data integrity for downstream analysis and reporting.
Lesson 4 • Geotechnical Domain Modeling
Integrates structural, lithological, and strength data into spatial geotechnical domains. Provides the model framework for slope and underground design.
Lesson 5 • Rock Mass Classification Systems
Applies RMR, Q-system, and GSI to characterize rock mass quality. Connects classification outputs to support and excavation design parameters.
Chapter 3HideHide detailsSee detailsOpen Pit Slope Stability Analysis
Open Pit Slope Stability Analysis
Lesson 1 • Slope Failure Mechanisms
Identifies planar, wedge, circular, and toppling failure modes in open pit slopes. Provides the diagnostic basis for selecting correct analysis methods.
Lesson 2 • Kinematic Analysis of Slopes
Uses stereonet projection to assess structurally controlled failure potential. Connects discontinuity orientation data to slope design decisions.
Lesson 3 • Probabilistic Slope Analysis
Introduces probability of failure and reliability concepts for slope design. Quantifies uncertainty in geotechnical parameters and design outcomes.
Lesson 4 • Limit Equilibrium Methods
Applies limit equilibrium techniques to calculate factor of safety for slope designs. Covers method selection, input parameters, and sensitivity analysis.
Lesson 5 • Numerical Modeling for Open Pit Slopes
Introduces finite element and distinct element methods for complex slope analysis. Extends beyond limit equilibrium for structurally complex or large-scale slopes.
Lesson 6 • Slope Design Criteria and Standards
Establishes acceptable factor of safety and probability of failure targets by slope scale. Links design criteria to regulatory and operational requirements.
Chapter 4HideHide detailsSee detailsUnderground Excavation Stability
Underground Excavation Stability
Lesson 1 • Ground Support Systems
Covers rock bolts, shotcrete, mesh, and cable bolts as components of ground support. Matches support elements to ground conditions and failure mechanisms.
Lesson 2 • Empirical Underground Design Methods
Applies the Q-system and stability graph methods to design excavation dimensions and support. Provides rapid, experience-based design tools for standard conditions.
Lesson 3 • Excavation Response and Failure Modes
Describes how rock masses respond to excavation through elastic, plastic, and brittle mechanisms. Identifies failure modes that govern support and excavation design.
Lesson 4 • Numerical Analysis of Underground Openings
Uses finite element and boundary element models to analyze stress and deformation underground. Extends empirical methods for complex geometry or high-stress conditions.
Lesson 5 • In Situ Stress in Underground Mines
Explains the origin, measurement, and significance of in situ stress for underground design. Establishes stress conditions that drive excavation response and support needs.
Chapter 5HideHide detailsSee detailsGeotechnical Instrumentation and Monitoring
Geotechnical Instrumentation and Monitoring
Lesson 1 • Data Analysis and Alert Systems
Processes monitoring data using trend analysis, velocity criteria, and automated alerts. Enables timely decisions to protect personnel and infrastructure.
Lesson 2 • Principles of Geotechnical Monitoring
Establishes the purpose, design logic, and performance objectives of monitoring programs. Connects monitoring to risk management and operational decision-making.
Lesson 3 • Underground Monitoring Systems
Applies convergence measurement, stress cells, and microseismic monitoring underground. Detects rock mass deterioration and seismic hazard in active mine workings.
Lesson 4 • Surface Displacement Monitoring
Covers prisms, total stations, radar, and GPS for measuring surface movement. Provides tools for detecting slope deformation in open pit and waste dump settings.
Lesson 5 • Subsurface and Groundwater Monitoring
Describes inclinometers, extensometers, and piezometers for subsurface condition tracking. Links subsurface data to stability model updates and drainage decisions.
Chapter 6HideHide detailsSee detailsWaste Dumps and Tailings Facilities
Waste Dumps and Tailings Facilities
Lesson 1 • Waste Rock Dump Geotechnics
Covers dump geometry, material properties, and failure mechanisms for waste rock facilities. Establishes design parameters for stable dump construction and operation.
Lesson 2 • Seepage and Drainage in Tailings Facilities
Analyzes seepage through tailings embankments and designs drainage control measures. Manages pore pressure to maintain embankment stability and prevent piping.
Lesson 3 • Tailings Facility Risk and Closure
Assesses failure consequence, dam break analysis, and long-term closure requirements. Integrates risk management with regulatory and community obligations.
Lesson 4 • Tailings Material Characterization
Describes tailings geotechnical properties including gradation, plasticity, and consolidation. Provides the material basis for tailings facility design and stability assessment.
Lesson 5 • Tailings Storage Facility Design
Applies embankment design methods to upstream, downstream, and centerline construction. Links design method selection to seismic and liquefaction risk.
Chapter 7HideHide detailsSee detailsSeismic Hazard and Rockburst Management
Seismic Hazard and Rockburst Management
Lesson 1 • Dynamic Ground Support Design
Designs support systems capable of absorbing dynamic energy from seismic events. Selects yielding bolts, mesh, and shotcrete combinations for rockburst conditions.
Lesson 2 • Rockburst Hazard Assessment
Applies stress analysis and seismic data to assess rockburst potential in mine workings. Identifies high-hazard zones for targeted mitigation and re-entry protocols.
Lesson 3 • Seismic Monitoring and Analysis
Covers microseismic network design, event location, and source parameter analysis. Provides the data foundation for seismic hazard assessment and response.
Lesson 4 • Sources of Seismicity in Mines
Identifies tectonic, fault-slip, and strain-burst sources of mine seismicity. Establishes the physical mechanisms that drive seismic hazard in mining environments.
Lesson 5 • Operational Rockburst Controls
Implements mining sequence, destress blasting, and exclusion zones to reduce rockburst risk. Integrates technical controls with emergency response and re-entry procedures.
Chapter 8HideHide detailsSee detailsGeotechnical Risk Management and Reporting
Geotechnical Risk Management and Reporting
Lesson 1 • Geotechnical Management Plans
Structures geotechnical management plans covering design, monitoring, and review cycles. Ensures systematic implementation of geotechnical controls across mine operations.
Lesson 2 • Geotechnical Reporting Standards
Applies professional reporting standards for geotechnical investigations and design submissions. Produces clear, defensible reports meeting regulatory and client requirements.
Lesson 3 • Geotechnical Failure Consequence Analysis
Quantifies potential consequences of geotechnical failures on people, assets, and environment. Supports risk-based design decisions and emergency preparedness planning.
Lesson 4 • Geotechnics Across the Mine Life Cycle
Integrates geotechnical input from exploration through closure into mine planning decisions. Demonstrates how geotechnics evolves in scope and detail at each project stage.
Lesson 5 • Geotechnical Risk Assessment Frameworks
Applies hazard identification, likelihood, and consequence assessment to geotechnical risks. Builds a structured approach to risk prioritization and treatment planning.
Your valid completion certificate
This course is for you:
Mining engineers seeking to deepen their geotechnical knowledge and expertise.
Geology graduates entering the mining industry for the first time.
Civil engineers transitioning into mine site design and safety roles.
Site supervisors responsible for slope and excavation safety decisions daily.
Environmental consultants working on tailings and waste facility compliance projects.
Project managers overseeing geotechnical risk across active mine operations.
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