Mineral Resource Estimation and Applied Geostatistics

Mineral Resource Estimation and Applied Geostatistics

1 Weeks
Professional Level
Certificate Included
Course Content

Available Events

Available Events
CityDatePriceStatus
AmsterdamNetherlands
September 30, 2026
€4,600
Confirmed date
Kuala LumpurMalaysia
October 1, 2026
€4,400
Confirmed date
GenevaSwitzerland
October 17, 2026
€4,600
Confirmed date
OnlineOnline
November 1, 2026
€1,790
Confirmed date
LondonUnited Kingdom
November 9, 2026
£4,600
Confirmed date
SingaporeSingapore
November 18, 2026
€4,800
Confirmed date
IstanbulTurkey
November 23, 2026
€3,900
Confirmed date
TunisTunis
December 2, 2026
€3,900
Confirmed date
LisbonPortugal
December 16, 2026
€4,400
Confirmed date
ParisFrance
December 21, 2026
€4,600
Confirmed date
DubaiUnited Arab Emirates
December 24, 2026
€3,900
Confirmed date

Course Information

Duration

1 Weeks

Category

Mining Courses

Level

Professional Level

Certificate

Included

INTRODUCTION

Mineral resource estimation is a critical technical process that directly influences mine planning, project valuation, investment decisions, operational strategy, and reporting confidence. Reliable resource models require more than software operation because they depend on geological understanding, data quality, spatial analysis, defensible estimation parameters, and disciplined validation. This program provides an advanced applied learning pathway for resource geologists, mining engineers, exploration managers, mine planners, and professionals involved in mineral resource evaluation. Participants will learn how to prepare geological and assay data, perform exploratory data analysis, understand support effects, and manage compositing decisions. The course then moves into variography, where participants examine experimental variograms, model fitting, anisotropy, nested structures, and geological interpretation of spatial continuity. Estimation modules focus on ordinary kriging, search strategy, block model construction, grade interpolation, estimation variance, and practical resource modelling decisions. The program also highlights validation and uncertainty control as essential components of transparent and reliable resource reporting. Participants will review case-based exercises that connect geostatistical outputs with practical planning and classification decisions. This course is ideal for advanced professionals seeking to improve the technical quality, credibility, and transparency of mineral resource models.

COURSE OBJECTIVES

Participants will achieve the following objectives by this course:

  • Understand the geostatistical foundations of mineral resource estimation.
  • Prepare geological, assay, and drill-hole data for resource modelling workflows.
  • Apply compositing, exploratory data analysis, and support effect concepts.
  • Build experimental variograms and interpret spatial continuity patterns.
  • Fit variogram models using anisotropy, nested structures, and geological reasoning.
  • Apply ordinary kriging using defensible estimation parameters.
  • Design search neighbourhoods and block models for grade interpolation.
  • Interpret estimation variance and uncertainty in resource modelling.
  • Validate estimates using cross-validation, swath plots, standardized errors, and reconciliation checks.
  • Support planning decisions with transparent, robust, and auditable resource models.

TARGET AUDIENCE

This program targets a professional audience seeking to improve knowledge and skills:

  • Resource geologists responsible for mineral resource estimation and reporting.
  • Mining engineers involved in resource evaluation and technical mine studies.
  • Exploration managers overseeing drill-hole data, geological models, and resource growth.
  • Mine planners using block models for scheduling, design, and production planning.
  • Geostatisticians seeking applied workflows for mining resource estimation.
  • Technical professionals involved in assay data, geological databases, and model validation.
  • Consultants preparing resource models, technical reports, and estimation reviews.
  • Project managers requiring stronger understanding of resource model reliability.

COURSE OUTLINE

Day 1: Geostatistical Foundations and Data Preparation

  • Understanding mineral resource estimation workflows.
  • Reviewing regionalized variables and spatial continuity.
  • Understanding stationarity in resource modelling.
  • Explaining support effect and scale implications.
  • Preparing geological and assay datasets.
  • Applying compositing principles to drill-hole data.
  • Conducting exploratory data analysis.
  • Identifying data quality issues and outliers.

Day 2: Variography and Spatial Continuity Analysis

  • Understanding experimental variograms and gamma functions.
  • Calculating variograms for mineralized domains.
  • Interpreting nugget, sill, and range values.
  • Identifying anisotropy in spatial continuity.
  • Fitting practical variogram models.
  • Applying nested variogram structures.
  • Linking variogram interpretation to geology.
  • Evaluating variogram quality and reliability.

Day 3: Estimation Methods and Ordinary Kriging

  • Understanding estimation principles in geostatistics.
  • Applying ordinary kriging to grade estimation.
  • Designing search neighbourhood strategies.
  • Selecting samples for local block estimation.
  • Building block models for mineral deposits.
  • Applying grade interpolation workflows.
  • Interpreting kriging weights and smoothing effects.
  • Understanding estimation variance and uncertainty.

Day 4: Model Validation and Bias Detection

  • Applying cross-validation to estimation models.
  • Using jack-knifing for model performance review.
  • Interpreting standardized errors in validation.
  • Preparing and reviewing swath plots.
  • Checking global and local estimation bias.
  • Comparing estimates with input sample data.
  • Performing reconciliation checks where applicable.
  • Documenting validation results clearly.

Day 5: Resource Classification and Applied Modelling Workflows

  • Understanding drill-hole spacing and confidence levels.
  • Linking data density to resource classification.
  • Applying classification logic to block models.
  • Reviewing geological continuity and estimation confidence.
  • Building three-dimensional resource modelling workflows.
  • Integrating geological domains with estimation parameters.
  • Managing uncertainty in resource classification.
  • Supporting mine planning with reliable resource models.

Day 6: Case-Based Resource Estimation and Reporting

  • Reviewing complete estimation case studies.
  • Building an applied resource estimation workflow.
  • Selecting defensible variogram and kriging parameters.
  • Validating estimates and identifying potential bias.
  • Preparing transparent resource model summaries.
  • Communicating uncertainty to technical stakeholders.
  • Supporting planning decisions through resource models.
  • Developing resource estimation improvement actions.

TECHNICAL FOCUS AREAS

  • Regionalized variables, stationarity, and support effect.

  • Drill-hole data preparation and compositing.

  • Exploratory data analysis for mineral resource estimation.

  • Experimental variograms and variogram model fitting.

  • Anisotropy, nested structures, and spatial continuity interpretation.

  • Ordinary kriging and grade interpolation.

  • Search neighbourhoods, block models, and estimation variance.

  • Cross-validation, jack-knifing, and standardized errors.

  • Swath plots, reconciliation checks, and bias detection.

  • Resource classification logic and transparent technical reporting.

EXPECTED PROFESSIONAL CAPABILITIES

  • Build and interpret variogram models for mineral deposits.

  • Apply ordinary kriging using technically defensible parameters.

  • Design appropriate search neighbourhoods for resource estimation.

  • Validate resource estimates and identify potential bias.

  • Interpret estimation variance and uncertainty indicators.

  • Link geological understanding with geostatistical estimation outputs.

  • Support mine planning decisions with transparent resource models.

  • Communicate resource model assumptions, limitations, and confidence levels.

TRAINING METHODOLOGY

  • Advanced technical instruction supported by mining examples.

  • Applied case studies in mineral resource estimation.

  • Practical exercises in exploratory data analysis and compositing.

  • Variogram interpretation and model fitting exercises.

  • Ordinary kriging workflow demonstrations.

  • Validation exercises using cross-validation and swath plots.

  • Group review of resource classification decisions.

  • Development of practical resource modelling recommendations.

COURSE DURATION

Duration: 1 Weeks

This training program is delivered over six intensive training days in a professional applied format, combining technical instruction, applied case studies, geological data preparation exercises, exploratory analysis, variography, ordinary kriging workflows, model validation, uncertainty interpretation, resource classification discussions, and practical reporting activities for professionals involved in mineral resource estimation and evaluation.

INSTRUCTOR INFORMATION

The course is delivered by an internationally certified expert with extensive practical and consulting experience in mineral resource estimation, applied geostatistics, geological modelling, variography, kriging, resource classification, mine planning support, model validation, technical reporting, and advisory work for mining projects, exploration teams, and resource evaluation professionals.

FREQUENTLY ASKED QUESTIONS

The course is designed for resource geologists, mining engineers, exploration managers, mine planners, consultants, and resource evaluation professionals.

CONCLUSION

Mineral Resource Estimation and Applied Geostatistics provides an advanced professional learning experience for specialists involved in resource modelling and mineral evaluation. The program connects geological data preparation, spatial continuity analysis, variography, kriging, validation, uncertainty control, and reporting into one structured workflow. Participants gain practical tools to build reliable resource models, validate estimates, and identify possible bias before models are used in planning decisions. The course strengthens technical confidence in applying geostatistical methods to real mineral deposit evaluation challenges. It is a valuable program for organizations seeking more transparent, defensible, and planning-ready mineral resource models.

Mineral Resource Estimation and Applied Geostatistics

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