
Objectives of reservoir modelling
Static vs dynamic modelling
Importance of data quality and QC
Petrel software overview and domains
Petrel geology workflow stages
Gulfex field dataset introduction
Creating and saving project
Coordinate Reference System (CRS) definition
Petrel interface (domain tabs, panes, tool palette)
Window types and management
Well heads import and attributes
Deviation data (MD, inclination, azimuth)
Well logs import and templates
Global well log concept
Well tops definition and import
Fault data
Seismic horizons import (time domain)
Isochore maps and thickness concepts
Data organization and sorting
2D and 3D visualization
Display settings and scaling
Window synchronization and cursor tracking
Well section creation
Log display using global templates
Log styling and curve filling
Correlation basics and interpretation
Integration of faults and horizons
Structural framework building
Fault impact on horizons
Model consistency in time domain
Structural model setup in Petrel
Fault modelling and editing
Fault connectivity and QC
Reservoir boundary definition
Pillar gridding and grid generation
Grid refinement and troubleshooting
Grid defects and cell distortion
Twisted cells and envelope problems
Grid quality control (QC)
Cell geometry and bulk volume checks
Grid orientation and simulation impact
Zigzag fault gridding and grid correction
Stratigraphic modelling concepts
Lithostratigraphic vs chronostratigraphic correlation
Well log correlation techniques
Reservoir zonation and layering
Sequence boundaries and depositional surfaces
Correlation applications in reservoir characterization
Well section visualization and log display
Log scaling, styling, and curve filling
Well section synchronization and spacing
Well top visualization and flattening
Reservoir zonation and layer correlation
Adding and editing well tops in Petrel
3D well top visualization and editing
Displaying well tops and logs in 3D
Creating and modifying well tops
Cross-section editing workflows
Swap tool for dynamic well section viewing
3D visualization of reservoir layer changes
Vertical layering workflow
Reservoir zonation and layering concepts
Horizon definition and modelling
Conformable and erosional horizon types
Seismic horizon integration in Petrel
Introduction to depth conversion workflows
Seismic velocity concepts and wave propagation
Factors affecting seismic velocity
Interval velocity calculation and interpretation
Importing and organizing velocity data
Velocity map visualization and QC
Introduction to depth conversion workflows in Petrel
Time-to-depth conversion workflows
Well top correction and calibration
Velocity equations and compaction factors
Converting structural grids from time to depth domain
Zone model generation and visualization in Petrel
Reservoir zonation workflows
Creating zones between stratigraphic horizons
Building zones from top or base horizons
Using isochore maps for zone distribution
Volume correction and thickness distribution methods
Zone model visualization and color editing in Petrel
Difference between zonation and layering
Importance of layering in reservoir simulation
Capturing reservoir heterogeneity and shale barriers
Layering methods and proportional layering
Layer generation and visualization in Petrel
Cell thickness and geometrical modelling concepts
Grid quality control (QC) workflows
Cell angle and distortion analysis
Bulk volume evaluation and cell geometry checks
Cell height analysis and layering optimization
Types of subsurface data in reservoir modelling
Discrete vs continuous data concepts
Core samples and facies as discrete data
Well logs and petrophysical logs as continuous data
Image data in reservoir characterization
Data types and their impact on property modelling algorithms
Facies modelling concepts and workflows
Deterministic vs stochastic facies modelling
Object modelling for fluvial reservoirs
Sequential Indicator Simulation (SIS) concepts
Histogram and variogram analysis in geostatistics
Truncated Gaussian and multipoint simulation methods
Estimation, interpolation, and extrapolation concepts
Data prediction within and outside known data ranges
Estimating reservoir properties from sample data
Interpolating porosity values between wells
Extrapolating reservoir properties beyond control points
Applications of interpolation methods in property modelling
Facies log visualization and interpretation
Fluvial depositional environment identification
Facies codes and classification
Scale-up concepts for facies modelling
Filling grid cells with facies properties
Scale-up methods in Petrel
Object modelling workflows for facies distribution
Applying facies modelling algorithms in Petrel
Channel, levee, and floodplain facies modelling
Channel geometry and depositional attributes
Trend maps and seismic-guided facies propagation
Visualization and tuning of facies models
Creating facies logs without existing facies data
Template creation and facies log setup
Using gamma ray logs for lithology classification
Applying calculator functions for facies generation
Preparing facies logs for object modelling and SIS workflows in Petrel
Introduction to petrophysical property modelling
Porosity, permeability, and saturation modelling concepts
Sequential Gaussian Simulation (SGS) workflows
Upscaling continuous well log data
Variogram and anisotropy settings for property modelling
Quality control of porosity models using histograms and well comparisons
Permeability modelling concepts and challenges
Relationship between porosity and permeability
Regression analysis and permeability prediction
Building permeability models using calculator functions
Quality control of permeability models in Petrel
Water saturation fundamentals and fluid distribution
Bound water vs free water concepts
Effective vs total porosity interpretation
Sources of water saturation data
Core analysis, well logs, and pressure data for saturation modelling
Fluid contacts in hydrocarbon reservoirs
Oil-water contact (OWC), gas-oil contact (GOC), and free water level (FWL)
Transition zone concepts and capillary pressure effects
Influence of grain size and sorting on fluid distribution
Capillary pressure curve interpretation
Height above contact concepts for water saturation modelling
Fluid contact modelling workflows
Creating gas-oil and oil-water contact surfaces
Building contact grids in Petrel
Height above contact (HAC) modelling concepts
Water saturation modelling using J-function relationships
Quality control and normalization of water saturation models
Reservoir volume calculation workflows
Defining fluid contacts for volumetric analysis
Net-to-gross, porosity, and saturation inputs
Oil and gas formation volume factor concepts
STOIIP and GIIP calculations
Generating volumetric reports and spreadsheet outputs in Petrel
Workflow design and automation in reservoir modelling
Updating reservoir models with new well data
Organizing modelling processes within workflow modules
Automating facies, property, and saturation modelling workflows
Integrating volumetric calculations into workflows
Net-to-gross modelling using porosity cutoffs in Petrel
Step into the world of subsurface modelling and build industry-ready skills using one of the most powerful software platforms in the oil & gas industry Petrel.
Are you a junior geoscientist or engineer struggling to bridge the gap between academic theory and practical industry workflows? This course is designed specifically for junior geologists, geoscientists, petroleum engineers, and fresh graduates who want to learn the complete workflow of 3D reservoir modelling from scratch using real industry practices and datasets.
Why Master Petrel and Reservoir Modelling?
In the modern energy sector, static reservoir models are the foundation for multimillion-dollar field development decisions. Knowing how to navigate Petrel and build robust, QC-checked 3D models makes you an incredibly valuable asset to any exploration or production team.
Through a practical, step-by-step approach, you will transform raw geological and well data into a fully integrated 3D reservoir model.
What We Will Cover:
The course follows a rigorous subsurface modelling workflow used by professionals in exploration and field development projects. You will master:
Data & Structure: Well data loading, quality control, correlation, and fault framework construction.
Grid Frameworks: Horizon modelling, depth conversion, pillar gridding, and layering.
Property Modelling: Facies modelling and petrophysical property distribution (Porosity, Permeability, Water Saturation).
Advanced Workflows: Workflow automation in Petrel, property integration, and QC.
Evaluation: Volumetric calculations, case management, and model updating with new wells.
Note: The course also introduces critical industry concepts such as uncertainty handling, model validation, and data consistency checks.
What You Will Be Able to Do By the End of the Course:
By the time you complete this masterclass, you will confidently:
Build and manage complex Petrel projects from scratch.
Create structural and property models that reflect true geological realities.
Understand & execute standard reservoir modelling workflows used by major E&P companies.
Perform quality control and model validation to ensure simulation readiness.
Prepare models for volumetric evaluation and further dynamic reservoir simulation studies.
Who Is This For?
Junior Geologists & Geoscientists looking to break into the industry or upgrade their software skills.
Petroleum & Reservoir Engineers who want to understand the static side of modeling.
Fresh Graduates aiming to make their resumes standout with practical, software-based portfolio skills.
No prior Petrel experience is required! Everything is explained step-by-step in a beginner-friendly, logical manner.
Unlock your career potential in subsurface engineering and geoscience. Enroll today and start your journey into professional 3D reservoir modelling!