Enhanced Oil Recovery Technologies

format: Virtual course

duration: 3 days

level: Advanced

accreditation: CPD

participants: 10

availability:

09/02/2026 9:00 am

European Central Time

$3,999.00

The “Enhanced Oil Recovery Technologies” course aims to equip participants with the knowledge and skills necessary to implement and optimize enhanced oil recovery (EOR) techniques across various reservoir types. Attendees will explore the definitions, classifications, and mechanisms of EOR methods, with a focus on how these technologies can be applied to meet the challenges of modern oil extraction.

The course begins with an introduction to different EOR processes, including thermal, gas injection, and chemical techniques, followed by an in-depth exploration of reservoir concepts and fluid properties critical for EOR success. Participants will then examine current and advanced EOR methods, including case studies that demonstrate the practical application of these techniques in real-world scenarios.

This course offers a unique opportunity for participants to dive deep into the innovative methodologies driving enhanced oil recovery (EOR) today. Participants will gain a comprehensive understanding of how to leverage these technologies, guided by recent advancements and field applications in the industry.

Special emphasis will be placed on understanding how different approaches can be integrated to tailor solutions specific to various reservoir conditions, ensuring participants are equipped with the tools necessary to optimize their operations.

The focus will be placed on the following key learning points:

EOR Techniques: Explore the full spectrum of EOR, including thermal processes, gas injection, and advanced chemical processes to enhance oil mobilization.
Data Analytics: Learn to leverage data analytics and reservoir characterization techniques to assess and optimize EOR effectiveness tailored to reservoir conditions.
Real-World Applications: Engage in case studies that highlight successful EOR implementations, fostering critical thinking and problem-solving skills

At the end of this training course, participants will be able to:

Articulate core EOR principles and identify the most suitable methods for various reservoir scenarios, making informed decisions aligned with economic goals.
Develop and optimize EOR models using advanced data analysis techniques, enhancing their predictive capabilities and improving recovery rates.
Communicate findings effectively to stakeholders, presenting strategies and insights that drive project management and strategic decision-making.

DAY 1

Morning Sessions – Different EOR Processes and Screening Criteria

Module 1 : Introduction to EOR Methods

Definition of Enhanced Oil Recovery (EOR)
Classification of EOR methods (thermal, gas, chemical, etc.)
Overview of EOR application scenarios
Key mechanisms involved in EOR techniques
Importance of selecting appropriate EOR methods for specific reservoirs
Case Study: Weyburn-Midale CO₂ Project, Canada

Module 2 : Reservoir Concepts and Screening Criteria

Reservoir rock properties (porosity, permeability, etc.)
Fluid properties (viscosity, density, etc.)
Screening criteria for selecting EOR methods
Mobility Ratio (M) and Capillary Number (Nc) analysis
Challenges and limitations faced in EOR selection
Case Study: Teapot Dome Field, Wyoming, USA

Afternoon Session – Reservoir Fluid Properties and Characterization

Module 3 : Reservoir Characterization for EOR

Basic reservoir concepts and definitions
Importance of rock and fluid characterization
Advanced techniques for reservoir characterization (e.g., core analysis)
Methods for determining fluid properties relevant to EOR
Data interpretation for better EOR outcomes
Case Study: North Sea Brent Crude Oil Fields

Module 4 : Water Flooding and Polymer Flooding

Water flooding principles and displacement theory
Design requirements for successful water flooding
Types of polymers and their properties in EOR
Mobility ratio considerations in polymer flooding
Field application case studies of polymer flooding
Case Study: Daqing Oil Field, China

DAY 2

Morning Sessions – Current Chemical and Miscible EOR Techniques

Module 5: Alkaline/Polymer and ASP Flooding

Overview of alkaline/polymer flooding mechanisms
ASP flooding processes and operational challenges
Case study: Daqing, China – Results and insights
Case study: Kentucky, USA – Results and insights
Importance of flexibility in applying chemical methods
Case Study: Kentucky’s DNR EOR Project, USA

Module 6 : Miscible Gas EOR Techniques

Overview of miscible gas injection techniques
CO₂ miscible flood processes and considerations
Laboratory methodologies for determining MMP
Comparison of miscible vs. immiscible processes
Practical field applications of gas EOR techniques
Case Study: SECARB Project, Illinois, USA

Afternoon Sessions – Current and Advanced Thermal EOR Processes

Module 7 : Thermal EOR Overview

Fundamentals of thermal recovery processes
Steam injection techniques: cyclic vs. continuous methods
Operational challenges and considerations in thermal EOR
Energy requirements and sustainability aspects
Field case studies demonstrating successful thermal applications
Case Study: Athabasca Oil Sands, Canada

Module 8: Advanced Thermal Techniques

SAGD techniques and operational requirements
In-situ combustion methods: forward and backward processes
Toe-to-Heel Air Injection (THAI) and CAPRI processes
Steam-CO₂ hybrid EOR techniques and field applications
Case studies illustrating advanced thermal methods
Case Study: Foster Creek, Canada

DAY 3

Morning Sessions – Other Advanced EOR Processes

Module 9: Microbial and Enzymatic EOR (MEOR and EEOR)

Overview of Microbial Enhanced Oil Recovery (MEOR) mechanisms
Enzyme Enhanced Oil Recovery (EEOR) principles and benefits
Challenges and considerations for biological EOR methods
Case studies showcasing successful applications of MEOR and EEOR
Future potential and research directions in biological EOR
Case Study: Harmattan Field, Canada

Module 10: Advanced and Hybrid EOR Technologies

Low Salinity Water (LSW) flooding mechanisms and benefits
Pulsed water flooding and its impact on oil recovery
Seismic, Electric, and Electromagnetic heating methods in EOR applications
Overview of next-generation hybrid EOR processes (e.g., CO₂-thermal applications)
Practical considerations for implementing advanced EOR strategies in the field
Case Study: Cold Lake Oil Sands, Canada

Afternoon Sessions – Data-Driven Future Trends

Module 11: Digital and Data-Driven EOR Technologies

Overview of digital oilfield solutions and their application in EOR
Data analytics, ML, and AI for optimizing EOR processes
Real-time monitoring and adaptive control strategies for enhanced recovery
Case Study: Optimization of Thermal EOR in the Permian Basin Using AI and Real-Time Monitoring

Module 12: Future Trends and Next-Generation EOR Technologies

Emerging EOR methods under research and development (e.g., electromagnetic methods, nanotechnology, smart fluids)
Integration of renewable energy sources and sustainability into EOR workflows
Regulatory, environmental, and economic considerations for next-generation EOR deployment
Vision for the future: innovation pathways and industry adaptation strategies
Case Study: R&D Pilot for Nanotechnology-Enhanced Chemical EOR in a Heavy Oil Field in Canada