Learning Objectives
5 objectives- Understand the fundamental principles and roles of reservoir engineering in hydrocarbon recovery.
- Analyze reservoir fluid and rock properties and their influence on reservoir behavior and performance.
- Evaluate different reservoir drive mechanisms and their impact on oil and gas production.
- Apply reservoir simulation and well testing techniques to optimize reservoir management and production.
- Explore enhanced oil recovery methods and economic considerations to maximize reservoir profitability.
Content Outline
PreviewUnit 2006: Reservoir Engineering Fundamentals and Applications
1. Introduction to Reservoir Engineering
- Definition and scope of reservoir engineering
- Role and responsibilities of reservoir engineers
- Types of reservoirs: conventional, unconventional, fractured, and others
- Key reservoir properties: rock, fluid, and reservoir geometry
- Importance of reservoir characterization and data acquisition
2. Reservoir Fluid Properties
- Types of reservoir fluids: oil, gas, and water
- Fluid phase behavior: PVT properties, phase envelopes, and phase diagrams
- Fluid composition and its impact on reservoir performance
- Fluid flow mechanisms in porous media
- Fluid sampling and laboratory analysis
3. Reservoir Rock Properties
- Rock types: sandstone, carbonate, shale, and others
- Porosity: types and measurement methods
- Permeability: absolute, effective, relative, and factors affecting permeability
- Capillary pressure and wettability
- Rock mechanics basics affecting reservoir behavior
4. Reservoir Drive Mechanisms
- Natural reservoir drives:
- Water drive
- Gas cap drive
- Solution gas drive
- Rock and fluid expansion
- Artificial drive mechanisms:
- Water injection
- Gas injection (miscible and immiscible)
- Impact of drive mechanisms on recovery efficiency
5. Reservoir Simulation
- Purpose and benefits of reservoir simulation
- Types of reservoir simulation models: black oil, compositional, thermal
- Numerical modeling concepts and grid systems
- Input data requirements and history matching
- Predicting reservoir performance and production optimization
6. Reservoir Management
- Principles of reservoir management
- Reservoir monitoring techniques (pressure, production data, surveillance)
- Production optimization strategies
- Field development planning and well placement
- Enhanced oil recovery integration
7. Well Testing and Pressure Transient Analysis
- Objectives of well testing
- Types of well tests: buildup, drawdown, interference
- Pressure transient analysis fundamentals
- Estimation of reservoir parameters: permeability, skin factor, boundaries
- Diagnosing well and reservoir conditions
8. Reservoir Performance Evaluation
- Production data analysis techniques
- Decline curve analysis: Arps, modified models
- Material balance calculations and volumetric estimation
- Reserves classification and estimation methods
- Decision-making based on performance evaluation
9. Enhanced Oil Recovery (EOR) Techniques
- Overview of EOR and its importance
- Chemical flooding: polymers, surfactants, alkaline
- Gas injection: CO2, nitrogen, flue gas
- Thermal methods: steam flooding, in-situ combustion
- Microbial EOR and emerging technologies
- EOR project design and screening criteria
10. Reservoir Economics
- Cost components in reservoir development and production
- Economic evaluation criteria: NPV, IRR, payback period
- Risk analysis and uncertainty management
- Decision-making processes in reservoir engineering
- Case studies on economic optimization
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