Enhanced Oil Recovery (EOR) Training Course

Course Category : Project Management

This programme develops an understanding of enhanced oil recovery as a strategic approach to improving recovery factors, focusing on key EOR techniques, systematic field screening, and feasibility and risk assessment to ensure practical and effective implementation.
Duration: 5 Training Days
Level: Advanced

Introduction

Many oilfields face a fundamental challenge: a substantial portion of oil remains unrecovered even after primary and secondary methods. This is driven by mobility ratio limitations, capillary forces, reservoir heterogeneity, and complex fluid–rock interactions—necessitating advanced recovery techniques to unlock remaining reserves
This course provides an advanced engineering framework for Enhanced Oil Recovery by balancing science with implementation. It covers oil formation and reservoir fundamentals, the EOR workflow and core recovery mechanisms, and the main commercial EOR families (thermal, gas, and chemical), as well as emerging techniques such as MEOR, electric/EM methods, and hybrid approaches. The course emphasises systematic screening and selection, conceptual project design, and linking technical decisions to economic feasibility, risk management, and environmental/regulatory requirements.

Targeted Audience

  • Reservoir engineers
  • Production engineers
  • Petroleum engineers
  • Petrophysicists
  • Geologists
  • Geoscientists
  • Professionals interested in enhanced oil recovery processes and technologies

Targeted Skills

  • Differentiating EOR classifications, techniques, and recovery mechanisms
  • Performing systematic field screening and selecting suitable EOR options
  • Analysing Mobility Ratio (M) and Capillary Number (Nc) to improve recovery performance
  • Developing conceptual EOR project designs integrated with existing operations
  • Evaluating EOR project economics, risks, and environmental/regulatory considerations

Expected Outcomes

  • Explain reservoir and fluid fundamentals and why conventional recovery is limited
  • Apply the generic EOR workflow to structure data requirements and technical decisions
  • Perform field screening and select EOR options based on reservoir, fluid, and operational criteria
  • Evaluate thermal, gas, and chemical EOR options and link them to recovery mechanisms
  • Use Mobility Ratio (M) and Capillary Number (Nc) concepts to enhance recovery factor
  • Assess emerging techniques (MEOR, enzyme, electric, EM-EOR, and hybrid methods) and their applicability
  • Develop an implementable EOR concept including operational, economic, environmental, and risk considerations

Training Topics Index

  • Reservoir rock, cap rock, and source rock fundamentals
  • Traps, petroleum system elements, and reservoir architecture
  • Core reservoir properties relevant to recovery
  • Oil and gas properties and production implications
  • Primary, secondary, and tertiary recovery comparison

  • EOR definition and when it becomes a strategic option
  • Generic EOR workflow and decision pathway
  • Main EOR categories and recovery mechanisms
  • Key limitations and operational/engineering challenges
  • Screening criteria and practical exercises for candidate fields

  • Chemical EOR fundamentals and rock–fluid interactions
  • Gas and miscible EOR fundamentals and miscibility requirements
  • Thermal EOR fundamentals and viscosity reduction mechanisms
  • Maximising recovery using Mobility Ratio (M) and Capillary Number (Nc)
  • Case studies on advanced thermal EOR applications and success indicators

  • MEOR principles, applicability, and constraints
  • Enzyme methods mechanisms and suitability conditions
  • Seismic/electric approaches concept, requirements, and limitations
  • EM-EOR fundamentals and potential applications
  • Chemical–thermal hybrid methods and selection logic

  • Cyclic and continuous steam injection design considerations
  • SAGD conceptual design and success conditions
  • In-situ combustion forward and backward methods
  • THAI and CAPRI concept, opportunities, and risk boundaries
  • Steam–CO₂ hybrid EOR fundamentals, field use, and economics linkage

Course Features

  • Updated and Interactive Content
  • Hypothetical Examples and Case Studies
  • Pre- and Post-assessments to Measure Impact
  • Verified Certificate with a QR Verification Code