Course Overview:
Understanding the thermodynamic behavior of petroleum fluids is crucial for effective reservoir characterization, production optimization, and enhanced oil recovery (EOR) techniques
This comprehensive 5-day professional training course will equip geoscientists and engineers with the essential knowledge and skills to analyze PVT data, predict fluid behavior, and optimize production strategies

Course Objectives:
By the end of this course, participants will be able to:
1
Understand the fundamental principles of thermodynamics and their application to petroleum fluids
2
Define and apply key thermodynamic concepts, such as energy, enthalpy, entropy, and Gibbs free energy
3
Utilize equations of state (EOS) to model the thermodynamic behavior of reservoir fluids
4
Analyze PVT data from various reservoir fluid samples, including black oil, volatile oil, and gas condensate
5
Predict phase transitions, such as bubble point, dew point, and retrograde condensation, using PVT relationships
6
Apply PVT data and thermodynamic principles to optimize well placement, production strategies, and EOR techniques
Course Agenda:
Day 1: Introduction to Thermodynamics and Petroleum Fluid Behavior
• Delve into the significance of thermodynamics in understanding the behavior of petroleum fluids in subsurface reservoirs
• Explore the fundamental principles of thermodynamics, including energy, enthalpy, entropy, and Gibbs free energy
• Discuss the concept of phase transitions and their application to petroleum fluids
• Understand the classification and characteristics of different types of reservoir fluids
Day 2: Equations of State (EOS) for Petroleum Fluids
• Introduce the concept of equations of state (EOS) and their role in modeling fluid behavior
• Explore various EOS models commonly used in reservoir engineering, such as the Peng-Robinson (PR) and Black-Goldman EOS
• Discuss the application of EOS to characterize reservoir fluids and predict their properties under varying conditions
• Analyze the strengths and limitations of different EOS models for various types of reservoir fluids
Day 3: PVT Data Analysis and Interpretation
• Understand the acquisition and importance of PVT data in reservoir characterization and production optimization
• Learn about various PVT data analysis techniques, including graphical methods, regression analysis, and EOS modeling
• Apply PVT data analysis tools to interpret phase transitions, fluid properties, and reservoir potential
• Discuss the impact of PVT data uncertainties on reservoir modeling and production decisions
Day 4: Phase Transitions and Their Implications for Reservoir Performance
• Delve into the concept of phase transitions, such as bubble point, dew point, and retrograde condensation
• Analyze the factors affecting phase transitions in reservoir fluids, including temperature, pressure, and fluid composition
• Explore the impact of phase transitions on fluid flow behavior, well productivity, and EOR techniques
• Apply PVT data and phase transition principles to optimize well placement, production strategies, and field development planning
Day 5: Applications of PVT Analysis in Enhanced Oil Recovery (EOR) Techniques
• Discuss the role of PVT analysis in selecting and evaluating EOR techniques, such as miscible flooding, polymer flooding, and thermal EOR
• Analyze the impact of PVT properties on EOR efficiency and miscibility behavior
• Utilize PVT data to design and optimize EOR processes for specific reservoir conditions
• Explore the future trends and advancements in PVT analysis, reservoir modeling, and subsurface data integration
Who Should Attend:
• Geoscientists and engineers involved in reservoir characterization, production optimization, and enhanced oil recovery (EOR) techniques
• Reservoir engineers responsible for well placement, well performance modeling, and field development planning
• Production engineers involved in well testing, fluid flow analysis, and reservoir management
• Students and professionals interested in pursuing a career in reservoir engineering, fluid properties, and subsurface analysis
Course Benefits:
• Develop a comprehensive understanding of thermodynamic principles, equations of state, and their application to petroleum fluids
• Gain hands-on experience in analyzing PVT data, predicting phase transitions, and optimizing production strategies
• Enhance your ability to utilize PVT data to assess reservoir potential, select EOR techniques, and optimize production processes
• Stay updated on the latest advancements in PVT analysis, reservoir modeling, and subsurface data integration
• Network with other geoscientists and engineers to foster collaboration and knowledge sharing