
General Geology Course
Master the full scope of Earth science with a course that takes you from mineral identification to plate tectonics, surface processes, and applied resource geology. Built for students, field technicians, and early-career geoscientists, this program delivers the technical depth and practical skills the profession demands. Every chapter connects foundational theory directly to real-world geological problems.
What you will learn:
This course covers the complete foundation of geology, including mineralogy, igneous, sedimentary, and metamorphic petrology, structural geology, geomorphology, and applied resource assessment. You will learn how to identify minerals and rocks, interpret depositional environments, and analyze tectonic structures using field and laboratory methods. The curriculum also addresses geologic hazards, hydrogeology, environmental geology, and engineering site investigation. Supplementary chapters introduce geochemistry, paleontology, remote sensing, and climate geology. By the end, you will have the scientific vocabulary, analytical tools, and practical skills to work confidently across core areas of the geological sciences.
How you study in practice General Geology Course
How you practise General Geology Course
For companies looking to train their team
With Dedika for Business, 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 Earth Science
Foundations of Earth Science
Lesson 1 • Geologic Time and the Rock Record
Introduces relative and absolute dating methods and the geologic time scale. Enables students to place geological events in chronological context.
Lesson 2 • Earth's Internal Structure
Describes the crust, mantle, outer core, and inner core using seismic evidence. Provides the structural context needed for understanding rock formation and tectonics.
Lesson 3 • History of Geological Thought
Traces key ideas from catastrophism to uniformitarianism and plate tectonics. Shows how paradigm shifts shaped modern geological interpretation.
Lesson 4 • Earth Materials Overview
Surveys minerals, rocks, and fluids as the primary materials geologists study. Sets the stage for detailed mineralogy and petrology chapters.
Lesson 5 • Geology as a Scientific Discipline
Defines geology's scope and its relationship to physics, chemistry, and biology. Grounds students in the scientific method as applied to Earth systems.
Chapter 2HideHide detailsSee detailsMineralogy: Identification and Properties
Mineralogy: Identification and Properties
Lesson 1 • Crystal Chemistry and Structure
Explains ionic bonding, silicate structures, and crystal lattice geometry. Connects atomic-scale chemistry to the macroscopic properties students observe in the field.
Lesson 2 • Physical Properties of Minerals
Covers hardness, cleavage, fracture, luster, color, and streak as diagnostic tools. Students apply these properties to distinguish minerals in hand specimens.
Lesson 3 • Common Rock-Forming Minerals
Profiles feldspars, quartz, micas, pyroxenes, amphiboles, and olivine. Provides the mineral literacy required for igneous, sedimentary, and metamorphic rock classification.
Lesson 4 • Mineral Identification Techniques
Demonstrates optical microscopy, X-ray diffraction, and spectroscopic methods. Prepares students to select appropriate analytical tools for mineral characterization.
Lesson 5 • Ore and Economic Minerals
Introduces sulfides, oxides, carbonates, and native elements of economic importance. Links mineralogy to resource extraction and environmental considerations.
Chapter 3HideHide detailsSee detailsIgneous Rocks and Volcanic Processes
Igneous Rocks and Volcanic Processes
Lesson 1 • Crystallization and Differentiation
Covers Bowen's reaction series, fractional crystallization, and magmatic differentiation. Shows how a single magma body can produce diverse rock types.
Lesson 2 • Magma Generation and Properties
Explains partial melting, magma composition, viscosity, and volatile content. Establishes the physical and chemical controls on eruptive behavior.
Lesson 3 • Extrusive Rocks and Volcanic Landforms
Describes lava types, pyroclastic materials, and the landforms they create. Connects eruptive style to magma composition and tectonic environment.
Lesson 4 • Intrusive Igneous Rock Classification
Classifies plutonic rocks by texture and mineralogy using standard schemes. Introduces batholiths, stocks, dikes, and sills as common intrusive bodies.
Lesson 5 • Volcanic Hazards and Monitoring
Surveys lava flows, ash fall, lahars, and pyroclastic density currents as hazards. Introduces seismic, geodetic, and gas-monitoring tools used in eruption forecasting.
Chapter 4HideHide detailsSee detailsSedimentary Rocks and Depositional Environments
Sedimentary Rocks and Depositional Environments
Lesson 1 • Clastic Sedimentary Rock Classification
Classifies conglomerates, sandstones, siltstones, and shales by grain size and composition. Introduces textural maturity as an indicator of transport distance.
Lesson 2 • Sediment Transport and Deposition
Covers fluid flow, grain settling, bedload transport, and depositional sorting. Connects hydraulic principles to the textures observed in sedimentary rocks.
Lesson 3 • Chemical and Biogenic Sedimentary Rocks
Examines limestones, cherts, evaporites, and coal as chemically or organically derived rocks. Links their formation to ocean chemistry, climate, and biological productivity.
Lesson 4 • Sedimentary Structures and Facies
Interprets cross-bedding, ripple marks, graded bedding, and bioturbation as process indicators. Introduces facies models for fluvial, deltaic, and marine environments.
Lesson 5 • Weathering and Erosion Processes
Distinguishes mechanical and chemical weathering and their products. Explains how climate and rock type control weathering rates and sediment supply.
Chapter 5HideHide detailsSee detailsMetamorphic Rocks and Processes
Metamorphic Rocks and Processes
Lesson 1 • Principles of Metamorphism
Defines metamorphism and distinguishes it from igneous and sedimentary processes. Introduces temperature, pressure, and fluid activity as the three controlling variables.
Lesson 2 • Metamorphism and Tectonic Settings
Links regional, contact, and dynamic metamorphism to specific plate boundary environments. Prepares students to use metamorphic rocks as tectonic indicators.
Lesson 3 • Foliated Metamorphic Rock Types
Classifies slates, phyllites, schists, and gneisses by texture and mineral content. Connects foliation development to directed stress and deformation history.
Lesson 4 • Non-Foliated Metamorphic Rocks
Describes hornfels, quartzite, marble, and skarn as products of contact or isochemical metamorphism. Distinguishes them from foliated equivalents by texture and setting.
Lesson 5 • Metamorphic Facies and Zones
Maps mineral assemblages onto pressure-temperature space using facies diagrams. Enables students to infer burial depth and tectonic setting from rock mineralogy.
Chapter 6HideHide detailsSee detailsPlate Tectonics and Structural Geology
Plate Tectonics and Structural Geology
Lesson 1 • Plate Tectonics Theory and Evidence
Reviews seafloor spreading, paleomagnetism, and hotspot tracks as evidence for plate motion. Establishes the driving mechanisms and plate boundary types.
Lesson 2 • Geologic Mapping and Cross-Section Construction
Applies structural data to produce geologic maps and balanced cross-sections. Develops the spatial reasoning skills central to field geology and subsurface interpretation.
Lesson 3 • Stress, Strain, and Rock Deformation
Defines stress and strain tensors and distinguishes elastic, plastic, and brittle behavior. Explains how temperature, pressure, and strain rate control deformation style.
Lesson 4 • Faults: Types and Tectonic Significance
Distinguishes normal, reverse, thrust, and strike-slip faults by geometry and kinematics. Links fault types to extensional, compressional, and transform tectonic settings.
Lesson 5 • Folds: Classification and Interpretation
Classifies anticlines, synclines, and complex fold geometries using standard descriptors. Teaches students to interpret fold orientation data from field measurements.
Chapter 7HideHide detailsSee detailsSurface Processes and Geomorphology
Surface Processes and Geomorphology
Lesson 1 • Mass Wasting and Slope Stability
Classifies landslides, debris flows, and creep by material and movement type. Evaluates triggering factors and slope stability for hazard assessment.
Lesson 2 • Glacial Processes and Landforms
Describes glacial erosion, transport, and deposition and the landforms they produce. Introduces glacial history as a record of past climate change.
Lesson 3 • Arid and Aeolian Environments
Covers wind erosion, dune formation, and desert landform development. Distinguishes arid geomorphic processes from humid-region equivalents.
Lesson 4 • Coastal and Marine Processes
Examines wave action, longshore drift, tidal processes, and coastal landform evolution. Addresses shoreline change in the context of sea-level rise.
Lesson 5 • Fluvial Systems and River Processes
Analyzes stream discharge, channel morphology, and fluvial landform development. Connects drainage basin characteristics to erosion and sediment delivery.
Chapter 8HideHide detailsSee detailsApplied Geology and Resource Assessment
Applied Geology and Resource Assessment
Lesson 1 • Geologic Hazard Identification and Assessment
Evaluates earthquake, volcanic, flood, and landslide hazards using geological data. Introduces probabilistic hazard assessment and risk communication methods.
Lesson 2 • Hydrogeology and Groundwater Systems
Explains aquifer types, groundwater flow, and well hydraulics. Connects subsurface geology to water resource management and contamination risk.
Lesson 3 • Mineral and Energy Resource Geology
Surveys ore deposit types, petroleum systems, and coal geology. Links geological controls on resource formation to exploration and extraction strategies.
Lesson 4 • Environmental Geology and Land Use
Addresses contaminated land, waste disposal geology, and land-use planning constraints. Integrates geological assessment into environmental impact evaluation.
Lesson 5 • Engineering Geology and Site Investigation
Applies rock and soil mechanics to foundation design, tunneling, and slope engineering. Covers borehole logging, geotechnical testing, and site characterization.
Your valid completion certificate
This course is for you:
Undergraduate students: building a rigorous scientific foundation in Earth sciences.
Geology technicians: seeking structured knowledge to complement hands-on field experience.
Environmental consultants: expanding their geoscience literacy for site assessment work.
Career changers: transitioning into mining, energy, or environmental sectors from other fields.
Amateur rock collectors: ready to move beyond hobby-level curiosity into systematic understanding.
High school science teachers: deepening subject knowledge to enrich Earth science instruction.
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