reservoir engineering

Course Description:

This course provides an in-depth introduction to hydrocarbon reservoir engineering, focusing
on fluid behavior, reservoir simulations, and history matching techniques. Through a
combination of theoretical sessions and hands-on practical exercises, participants will gain a
comprehensive understanding of reservoir behavior, fluid properties, phase behavior, and
advanced simulation techniques. The course is ideal for reservoir engineers, geoscientists, and
professionals involved in reservoir management, aiming to enhance their skills in dynamic
reservoir modeling and optimization.

5 Days

  • Reservoir engineers
  • Geoscientists
  • Professionals involved in hydrocarbon reservoir management and simulation

Basic understanding of geology, fluid mechanics, and petroleum engineering principles

By the end of this course, participants will be able to

  •  Describe the fundamental principles of hydrocarbon reservoir engineering, including reservoir behavior and fluid
    properties.
  •  Differentiate between conventional and unconventional reservoirs and their characteristics.
  •  Understand the key fluid properties such as viscosity, density, and compressibility, and their impact on reservoir
    performance.
  •  Perform phase behavior analysis of hydrocarbons using PVT (Pressure-Volume-Temperature) data and phase
    diagrams.
  • Understand the purpose and benefits of reservoir simulation and its role in optimizing hydrocarbon recovery.
  • Set up a basic reservoir simulation model, including grid design, well modeling, and boundary conditions for both
    black oil and compositional models.
  • Understand the principles of J-Function modeling and its applications in reservoir studies.
  • Use J-Function modeling to estimate fluid saturation from well log data and improve reservoir characterization.
  •  Understand the importance of history matching in hydrocarbon reservoir management and its impact on
    decision-making.
  • Use manual and automated approaches to match production, pressure, and saturation data with simulation
    models.
  • Apply advanced history matching techniques using optimization algorithms and machine learning to enhance the
    accuracy of reservoir models.
  • Analyze real-world case studies that demonstrate successful reservoir simulation and history matching.
  • Work on a final project involving dynamic reservoir simulation and history matching to apply the knowledge
    gained during the course.

Participants will leave the course with a solid foundation in reservoir engineering, practical skills in reservoir simulation and history matching, and the ability to integrate these techniques into real-world reservoir management tasks.

SYLLABUS

  • Overview of Hydrocarbon Reservoir Engineering: Importance and Applications
  • Key Concepts: Reservoir Behavior, Fluid Properties, and Phase Behavior
  • Types of Hydrocarbon Reservoirs: Conventional vs. Unconventional
  • Basic Reservoir Engineering Calculations: Material Balance and Recovery Factors
  • Understanding Fluid Properties: Viscosity, Density, and Compressibility
  • Phase Behavior of Hydrocarbons: PVT Analysis and Phase Diagrams
  • Impact of Fluid Properties on Reservoir Performance
  • Practical Exercise: Analyzing PVT Data and Calculating Fluid Properties
  • Introduction to Reservoir Simulation: Purpose and Benefits
  • Overview of Simulation Models: Black Oil, Compositional, and Thermal Models
  • Key Components of a Reservoir Simulation: Grid Design, Well Modeling, and Boundary Conditions
  • Practical Exercise: Setting Up a Simple Hydrocarbon Reservoir Simulation Model
  • Introduction to History Matching: Importance in Hydrocarbon Reservoir Management
  • Techniques for History Matching: Manual vs. Automated Approaches
  • Key Performance Indicators for History Matching: Production Data, Pressure Data, and Saturation Profiles
  • Practical Exercise: Performing a Basic History Match on a Hydrocarbon Reservoir Simulation
    Model
  • Advanced Techniques in History Matching: Use of Optimization Algorithms and Machine Learning
  • Case Studies: Successful History Matching in Hydrocarbon Reservoirs
  • Final Project: Participants Work on a Case Study to Perform Dynamic Simulation and History Matching of a Hydrocarbon Reservoir
  • Course Review and Q&A Session

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