Course Overview
Reservoir engineering plays a vital role in maximizing hydrocarbon production and extending the life of oil and gas fields. This Reservoir Engineering and Enhanced Recovery Techniques Training Course provides participants with the technical knowledge and applied skills to analyze reservoirs, model performance, and implement enhanced oil recovery (EOR) methods.
The course covers reservoir characterization, fluid flow principles, material balance, and simulation techniques. Participants will also explore EOR strategies such as thermal recovery, gas injection, and chemical flooding, supported by case studies from around the world.
By the end of the course, participants will be prepared to improve recovery efficiency, reduce production decline, and apply innovative reservoir management strategies.
Course Benefits
Gain a strong foundation in reservoir engineering principles.
Learn advanced reservoir simulation and modeling techniques.
Evaluate and apply enhanced recovery methods.
Improve decision-making for field development and production.
Maximize hydrocarbon recovery while reducing decline rates.
Course Objectives
Understand reservoir properties and fluid flow mechanisms.
Apply material balance and decline curve analysis.
Use reservoir simulation tools for performance forecasting.
Evaluate different EOR techniques and their applications.
Design reservoir management strategies for production optimization.
Assess economic and operational feasibility of EOR projects.
Strengthen decision-making through case-based analysis.
Training Methodology
The course combines instructor-led lectures, reservoir engineering problem-solving, simulation workshops, and industry-based case studies. Participants will practice applying reservoir analysis and EOR methods to real-world scenarios.
Target Audience
Reservoir engineers and petroleum engineers.
Production and field development engineers.
Geoscientists and subsurface professionals.
Technical managers in oil and gas companies.
Target Competencies
Reservoir characterization and analysis.
Simulation and performance forecasting.
Enhanced oil recovery (EOR) applications.
Reservoir management and optimization.
Course Outline
Unit 1: Fundamentals of Reservoir Engineering
Reservoir rock and fluid properties.
Porosity, permeability, and fluid saturation.
Fluid flow mechanisms in porous media.
Reservoir drive mechanisms.
Unit 2: Reservoir Analysis and Evaluation
Material balance calculations.
Decline curve analysis.
Well testing and pressure analysis.
Reservoir performance monitoring.
Unit 3: Reservoir Simulation and Modeling
Principles of reservoir simulation.
Building static and dynamic models.
Forecasting reservoir performance.
Case studies of simulation applications.
Unit 4: Enhanced Oil Recovery Techniques
Thermal recovery methods.
Gas injection strategies.
Chemical flooding and surfactant methods.
Field applications of EOR projects.
Unit 5: Reservoir Management Strategies
Integrating reservoir studies into field development.
Production optimization methods.
Monitoring and adjusting EOR performance.
Best practices for long-term reservoir management.
Unit 6: Economic and Risk Considerations
Evaluating feasibility of EOR projects.
Cost-benefit analysis of recovery techniques.
Managing operational risks in reservoir projects.
Decision-making frameworks for investment.
Unit 7: Future Trends in Reservoir Engineering
Digital tools and AI in reservoir analysis.
Unconventional reservoirs and shale resources.
CO₂ injection and carbon management in EOR.
Emerging technologies in recovery enhancement.
Ready to maximize recovery and optimize reservoir performance?
Join the Reservoir Engineering and Enhanced Recovery Techniques Training Course with EuroQuest International Training and gain the skills to drive production success.
The Reservoir Engineering and Enhanced Recovery Techniques Training Courses in Madrid provide professionals with a comprehensive understanding of the scientific principles, analytical methods, and advanced recovery strategies essential for maximizing hydrocarbon extraction and optimizing reservoir performance. As global energy demand evolves and mature fields become more challenging to develop, organizations rely on skilled reservoir engineers and technical specialists to design efficient recovery programs that ensure long-term productivity and economic viability. These programs are tailored for reservoir engineers, geoscientists, production specialists, and project managers seeking to deepen their technical expertise and apply cutting-edge recovery solutions.
Participants explore core concepts in reservoir engineering, including reservoir characterization, fluid properties, pressure behavior, flow dynamics, well performance analysis, and reservoir simulation. The courses emphasize practical methodologies used to evaluate reserves, predict production behavior, and support field development planning. Through technical case studies and hands-on modeling exercises, attendees gain experience interpreting reservoir data, designing well strategies, and optimizing reservoir management decisions.
These enhanced recovery training programs in Madrid also focus on advanced techniques such as waterflooding, gas injection, thermal recovery, chemical EOR, and emerging enhanced recovery technologies. Participants learn how to assess the suitability of different EOR methods, evaluate the impact on reservoir performance, and integrate enhanced recovery into existing development plans. The curriculum highlights both the technical and economic dimensions of EOR implementation, ensuring a balanced understanding of feasibility, operational considerations, and long-term field performance.
Attending these training courses in Madrid provides professionals with access to expert-led instruction and a collaborative international learning environment. The city’s dynamic energy and research community enriches discussions on innovation, reservoir challenges, and modern recovery solutions. By completing this specialization, participants will be equipped to apply advanced reservoir engineering principles, design effective enhanced recovery programs, and contribute to maximizing the value and sustainability of hydrocarbon assets in a competitive global energy landscape.