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Metallogeny Training Course

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Natural Sciences and Research

Geography and Geology

Metallogeny Training Course

For all levels

Metallogeny Training Course

Master the science of ore deposit genesis, from magmatic and hydrothermal systems to sedimentary and supergene processes. This course gives geoscientists and exploration professionals the analytical tools to interpret metallogenic provinces, model deposit systems, and generate drill-ready targets. Build the technical foundation that drives real exploration decisions.

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What you'll learn:

You will develop a rigorous understanding of how ore deposits form across all major tectonic settings, including subduction zones, cratons, rifts, and collisional orogens. The course covers magmatic differentiation, hydrothermal fluid chemistry, sedimentary ore systems, and supergene enrichment in systematic detail. You will learn to construct ore deposit models, interpret geochemical and geophysical datasets, and apply geostatistical methods for resource estimation. Supplementary modules address critical minerals, machine learning for prospectivity mapping, environmental geochemistry, and professional reporting standards. By the end, you will be equipped to evaluate exploration projects and communicate findings to technical and non-technical audiences.

How you study in practice Metallogeny Training Course

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Course content

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

Chapter 1See details

Foundations of Metallogeny

Lesson 1 • Geochemical Behaviour of Metals
Covers how metals partition between minerals, fluids, and melts based on ionic radius and charge. Understanding element mobility is essential for tracing ore-forming processes.
Lesson 2 • Crustal Architecture and Metal Distribution
Examines how lithospheric structure controls the spatial distribution of metal endowment. Students connect tectonic setting to first-order metal province patterns.
Lesson 3 • Definition and Scope of Metallogeny
Metallogeny is defined as the study of ore genesis in space and time. This section establishes vocabulary and scope that underpin all subsequent deposit analysis.
Lesson 4 • Classification of Ore Deposit Types
Presents genetic and descriptive classification systems used in industry and research. Students apply classification criteria to real deposit examples.
Lesson 5 • Ore-Forming Fluids: An Introduction
Introduces the principal fluid types responsible for metal transport and deposition. This foundation prepares students for detailed fluid-system analysis in later chapters.

Chapter 2See details

Tectonic Settings and Ore Genesis

Lesson 1 • Subduction-Related Ore Systems
Analyses arc magmatism and slab-derived fluids as drivers of porphyry and epithermal systems. Students trace metal pathways from subducting slab to upper-crustal deposit.
Lesson 2 • Plate Tectonics and Metallogenic Provinces
Reviews plate boundary types and their associated heat flow, magmatism, and fluid regimes. Students connect tectonic setting to first-order metallogenic province boundaries.
Lesson 3 • Collisional and Accretionary Orogen Deposits
Examines orogenic gold, skarn, and intrusion-related deposits formed during crustal thickening. Students interpret structural controls on deposit localisation in orogens.
Lesson 4 • Rift and Extensional Tectonic Environments
Covers sediment-hosted and volcanic-hosted deposits formed during crustal extension. Students distinguish rift-stage from post-rift metallogenic signatures.
Lesson 5 • Cratons and Archean Metallogenic Signatures
Addresses the unique ore deposit record preserved in ancient cratons, including komatiite-hosted nickel and greenstone-belt gold. Students evaluate how Archean tectonics differed from modern plate tectonics.

Chapter 3See details

Magmatic Ore-Forming Processes

Lesson 1 • Sulfide Liquid Immiscibility
Explains how an immiscible sulfide melt segregates from silicate magma and scavenges chalcophile metals. Students apply the R-factor concept to predict metal tenor in sulfide ores.
Lesson 2 • Magmatic Nickel-Copper-PGE Deposits
Analyses the geology, geochemistry, and structural setting of magmatic sulfide deposits in mafic-ultramafic intrusions. Students distinguish contact-type from disseminated ore styles.
Lesson 3 • Carbonatites and Alkaline Magmatic Deposits
Covers rare earth element, niobium, and phosphate deposits associated with carbonatite and alkaline igneous complexes. Students link mantle metasomatism to carbonatite metal endowment.
Lesson 4 • Magmatic Differentiation and Metal Enrichment
Covers fractional crystallisation, assimilation, and magma mixing as mechanisms for metal concentration. Students calculate enrichment factors using partition coefficients introduced earlier.
Lesson 5 • Layered Intrusions and Chromite Deposits
Examines rhythmic layering, chromite seams, and PGE reefs in large layered mafic intrusions. Students interpret stratigraphic profiles to locate reef horizons.

Chapter 4See details

Hydrothermal Systems and Fluid Processes

Lesson 1 • Hydrothermal Fluid Chemistry
Covers solubility controls, ligand complexing, and pH-Eh conditions governing metal transport in hydrothermal fluids. Students apply thermodynamic diagrams to predict metal speciation.
Lesson 2 • Fluid Sources and Isotopic Tracers
Examines oxygen, hydrogen, sulfur, and carbon isotope systematics to fingerprint fluid sources. Students interpret isotope data from published ore deposit studies.
Lesson 3 • Precipitation Mechanisms and Ore Deposition
Analyses the physical and chemical triggers that cause metals to precipitate from hydrothermal fluids. Students model boiling, mixing, and wall-rock reaction scenarios.
Lesson 4 • Fluid Inclusion Microthermometry
Teaches the acquisition and interpretation of fluid inclusion data to constrain P-T-X conditions of ore formation. Students practise reading microthermometric data from case studies.
Lesson 5 • Hydrothermal Alteration Assemblages
Describes the principal alteration zones produced by hydrothermal fluid-rock interaction and their diagnostic minerals. Students map alteration halos as vectors toward ore zones.

Chapter 5See details

Sedimentary and Supergene Ore Systems

Lesson 1 • Supergene Enrichment and Lateritic Deposits
Examines oxidation, leaching, and secondary enrichment processes that upgrade primary sulfide and oxide ores. Students calculate enrichment ratios and map supergene profiles.
Lesson 2 • Sedimentary Exhalative Deposits
Examines SEDEX lead-zinc-silver deposits formed by seafloor venting of basinal brines. Students interpret stratigraphic and geochemical evidence for synsedimentary ore formation.
Lesson 3 • Banded Iron Formations and Iron Ore
Analyses Precambrian BIF genesis and supergene enrichment to high-grade iron ore. Students link BIF distribution to Precambrian ocean chemistry and tectonic events.
Lesson 4 • Placer and Paleoplacer Gold Deposits
Covers mechanical concentration of gold and heavy minerals in fluvial, beach, and ancient conglomerate settings. Students evaluate source-to-sink pathways for placer gold systems.
Lesson 5 • Mississippi Valley-Type Lead-Zinc Deposits
Covers carbonate-hosted MVT deposits formed by basinal brine migration through platform carbonates. Students distinguish MVT from SEDEX using mineralogical and isotopic criteria.

Chapter 6See details

Deposit Modeling and Metallogenic Analysis

Lesson 1 • Structural Controls on Ore Localisation
Analyses how faults, folds, and lithologic contacts focus fluid flow and ore deposition. Students apply structural analysis to predict ore shoot orientations.
Lesson 2 • Geochronology in Metallogenic Studies
Explains how radiometric dating constrains ore-forming events and links deposits to tectonic episodes. Students interpret age data to construct metallogenic timelines.
Lesson 3 • Metallogenic Map Construction
Covers compilation of deposit databases, tectonic overlays, and geochemical grids into metallogenic maps. Students produce a regional metallogenic map using GIS-based tools.
Lesson 4 • Multi-Commodity and Polymetallic Systems
Examines deposits yielding multiple metals and the paragenetic relationships amongst ore mineral assemblages. Students evaluate by-product metal potential in complex ore systems.
Lesson 5 • Ore Deposit Model Construction
Teaches the components of a robust ore deposit model, including geologic, geochemical, and geophysical attributes. Students draft a model template for a selected deposit type.

Chapter 7See details

Exploration Geochemistry and Targeting

Lesson 1 • Pathfinder Elements and Geochemical Halos
Identifies pathfinder element suites diagnostic of specific deposit types and their dispersion patterns. Students use pathfinder data to vector toward concealed ore zones.
Lesson 2 • Target Generation and Drill Planning
Integrates geochemical, geological, and geophysical data layers to rank and prioritise drill targets. Students produce a target report with drill collar locations and expected intercepts.
Lesson 3 • Geochemical Sampling Methods
Covers soil, stream sediment, rock chip, and vegetation sampling strategies for different terrains. Students select appropriate media and sample density for a given exploration stage.
Lesson 4 • Analytical Methods and Quality Control
Reviews ICP-MS, fire assay, and XRF analytical techniques and their detection limits. Students design QA/QC programmes using standards, blanks, and duplicates.
Lesson 5 • Multi-Element Data Processing
Teaches statistical and multivariate methods to extract metallogenic signal from geochemical noise. Students apply principal component analysis and factor analysis to exploration datasets.

Chapter 8See details

Resource Estimation and Strategic Evaluation

Lesson 1 • Mineral Resource Classification Frameworks
Explains internationally recognised resource and reserve classification categories and the confidence criteria behind each. Students classify a deposit using geological and data-density criteria.
Lesson 2 • Cut-Off Grade and Tonnage Optimisation
Covers the economic and technical factors that determine cut-off grade and their effect on resource tonnage. Students calculate break-even cut-off grades under varying metal price scenarios.
Lesson 3 • Economic Evaluation of Ore Deposits
Applies net present value, internal rate of return, and payback period to deposit evaluation. Students build a simplified cash flow model for a hypothetical ore deposit.
Lesson 4 • Strategic Portfolio and Project Ranking
Examines how exploration companies rank projects within a portfolio using technical and commercial criteria. Students apply a scoring matrix to rank a set of hypothetical projects.
Lesson 5 • Geostatistical Methods for Grade Estimation
Introduces variogram analysis, kriging, and conditional simulation for grade interpolation. Students build a variogram and perform ordinary kriging on a sample dataset.

Certification

Your valid completion certificate

This course is for you:

Exploration geologist: ready to deepen understanding of ore-forming processes.
Geology graduate student: building a specialization in economic geology and mining.
Mining company technical staff: seeking stronger scientific grounding for project decisions.
Geoscience consultant: expanding service offerings into metallogenic assessment and targeting.
Career-changer from environmental geology: transitioning into mineral exploration and resource work.
Geochemist: wanting to connect analytical skills directly to ore deposit interpretation.

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