The Fractured and Unconventional Reservoir Modelling Training Course by Oxford Training Centre, under Oil and Gas Training Courses, provides advanced knowledge and practical techniques for fractured and unconventional reservoir modelling. The course explores the characterization, simulation, and performance prediction of complex reservoirs, with particular emphasis on shale reservoirs, natural and hydraulic fractures, fracture network analysis, and reservoir simulation. Participants will learn how to build reliable reservoir models, evaluate uncertainty, optimize development strategies, and improve hydrocarbon recovery from challenging subsurface environments.
Objectives
- Understand the fundamentals of fractured and unconventional reservoir modelling.
- Characterize geological, petrophysical, and geomechanical properties of complex reservoirs.
- Develop effective models for shale reservoirs and naturally fractured formations.
- Apply fracture network analysis to evaluate fracture distribution and connectivity.
- Build and calibrate reservoir simulation models for unconventional assets.
- Analyze fluid flow through complex fracture and matrix systems.
- Evaluate hydraulic fracturing impacts on reservoir performance.
- Integrate well, seismic, geological, and production data into reservoir models.
- Assess uncertainty and conduct sensitivity analysis for development decisions.
- Optimize field development and enhanced recovery strategies.
Target Audience
- Reservoir Engineers
- Petroleum Engineers
- Geoscientists
- Production Engineers
- Drilling and Completion Engineers
- Geologists and Petrophysicists
- Reservoir Modelling Specialists
- Unconventional Resource Development Professionals
- Oil and Gas Asset Managers
- Technical Professionals involved in reservoir simulation and field development
Course Content
Module 1: Fundamentals of Fractured and Unconventional Reservoirs
- Characteristics of fractured and unconventional reservoirs
- Conventional versus unconventional reservoir behaviour
- Reservoir heterogeneity and anisotropy
- Matrix and fracture flow mechanisms
- Challenges in unconventional reservoir development
Module 2: Geological and Petrophysical Characterization
- Reservoir architecture and facies modelling
- Porosity and permeability distribution
- Rock properties and fluid characterization
- Core, well-log, and seismic data integration
- Uncertainty in reservoir characterization
Module 3: Shale Reservoir Modelling
- Geological modelling of shale reservoirs
- Organic-rich formations and source rock properties
- Natural fractures and reservoir quality
- Multiscale modelling approaches
- Sweet-spot identification and characterization
Module 4: Fracture Network Analysis
- Natural fracture characterization
- Discrete fracture network concepts
- Fracture geometry, density, and orientation
- Fracture connectivity and permeability
- Integration of image logs, seismic, and core data
- Modelling uncertainty in fracture networks
Module 5: Hydraulic Fracturing and Stimulated Reservoirs
- Hydraulic fracture fundamentals
- Fracture propagation and geometry
- Stimulated reservoir volume
- Fracture-matrix interaction
- Incorporating stimulation data into reservoir models
- Production impacts of hydraulic fracturing
Module 6: Reservoir Simulation
- Fundamentals of reservoir simulation
- Simulation of fractured and unconventional systems
- Dual-porosity and dual-permeability approaches
- Multiphase flow and pressure behaviour
- History matching and model calibration
- Production forecasting
Module 7: Advanced Modelling and Uncertainty Analysis
- Static and dynamic model integration
- Sensitivity analysis
- Probabilistic reservoir modelling
- Scenario development and uncertainty quantification
- Model validation and quality control
Module 8: Field Development and Optimization
- Well placement and completion strategies
- Production performance evaluation
- Development planning for unconventional assets
- Recovery optimization
- Economic considerations in reservoir modelling
- Practical case studies and modelling applications
FAQs
1. What is fractured and unconventional reservoir modelling?
Fractured and unconventional reservoir modelling involves creating geological and simulation models to understand complex formations, fracture systems, fluid flow, and production behaviour.
2. Who should attend this training course?
The course is designed for reservoir engineers, petroleum engineers, geoscientists, geologists, production engineers, and professionals involved in unconventional reservoir development.
3. What topics are covered in the course?
The course covers shale reservoirs, fracture characterization, fracture network analysis, hydraulic fracturing, reservoir simulation, uncertainty analysis, production forecasting, and development optimization.
4. How does reservoir simulation support unconventional reservoir development?
Reservoir simulation helps professionals predict pressure and production behaviour, evaluate fracture-matrix interactions, test development scenarios, and optimize well and completion strategies.
5. What will participants learn about shale reservoirs?
Participants will learn how to characterize shale formations, model geological and petrophysical properties, evaluate natural fractures, identify sweet spots, and assess production performance.
6. Does the course cover fracture network analysis?
Yes. The course covers natural fracture characterization, discrete fracture network concepts, fracture connectivity, geometry, orientation, and integration of subsurface data.
7. Which institute offers this training course?
The Fractured and Unconventional Reservoir Modelling Training Course is offered by Oxford Training Centre as part of its Oil and Gas Training Courses.