fracture modeling in fractured reservoirs

Course Description:

This course provides a comprehensive introduction to fracture modeling in fractured
reservoirs, combining theoretical knowledge with hands-on exercises. Participants will
explore the impact of fractures on reservoir performance, techniques for fracture
characterization, and the use of advanced modeling methods such as Discrete Fracture
Network (DFN) and Continuous Fracture Modeling (CFM). The course is designed for
reservoir engineers, geoscientists, and professionals involved in reservoir
characterization, providing them with the skills necessary to integrate data from image
logs, production tests, and seismic attributes into robust fracture models.

5 Days

  • Reservoir engineers
  • Geoscientists
  • Professionals involved in fractured reservoir characterization and modeling

Basic understanding of reservoir engineering principles, geology, and geophysics

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

  • Explain the characteristics and importance of fractures in reservoirs.
  • Distinguish between natural and induced fractures and their impacts on reservoir
    performance and fluid flow.
  • Interpret image logs to identify and characterize fractures using industry-standard techniques.
  • Integrate image log data with geological models to enhance fracture characterization.
  • Analyze production data and well test results to identify fracture patterns and performance
    indicators.
  • Develop and implement Discrete Fracture Network (DFN) models using well test and
    production data.
  • Extract seismic attributes related to fracture intensity and integrate them with other data
    sources.
  • Apply Continuous Fracture Modeling (CFM) techniques using seismic attributes and other
    reservoir data.
  • Combine DFN, CFM, image log data, production data, and seismic attributes to build
    comprehensive fracture models.
  • Employ geostatistical techniques for advanced fracture modeling and simulation.
  •  Develop an integrated fracture model from real-world case studies.
  •  Present and defend a fracture modeling approach in a final project.

SYLLABUS

  • Overview of Fractured Reservoirs: Importance and Characteristics
  • Types of Fractures: Natural vs. Induced Fractures
  • Impact of Fractures on Reservoir Performance and Fluid Flow
  • Introduction to Fracture Modeling: Objectives and Applications
  • Understanding Image Logs: Types and Interpretation Techniques
  • Analyzing Image Logs for Fracture Identification and Characterization
  • Practical Exercise: Interpreting Image Logs to Identify Fracture Patterns
  • Integrating Image Log Data with Geological Models
  • Overview of Production Data Analysis: Key Performance Indicators
  • Techniques for Analyzing Production Data in Fractured Reservoirs
  • Understanding Well Test Data: Types and Interpretation
  • Introduction to Discrete Fracture Network (DFN) Modeling: Concepts and Applications
  • Practical Exercise: Developing a Basic DFN Model Using Production and Well Test Data
  • Introduction to Seismic Attributes: Importance in Fracture Modeling
  • Techniques for Extracting Seismic Attributes Related to Fracture Intensity
  • Overview of Continuous Fracture Model (CFM) Techniques: Concepts and Applications
  • Integrating Seismic Data with Image Logs and Production Data
  • Practical Exercise: Using Seismic Attributes to Model Fracture Intensity and Develop a CFM
  • Developing an Integrated Fracture Model: Combining DFN, CFM, Image Logs, Production Data,and Seismic Attributes
  • Advanced Techniques in Fracture Modeling: Geostatistical Approaches and Simulation
  • Case Studies: Successful Applications of Integrated Fracture Modeling in Fractured Reservoirs
  • Final Project: Participants Work on a Case Study to Develop a Comprehensive Fracture Model
    Using DFN and CFM Approaches
  • Course Review and Q&A Session

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