- Enhanced Oil Recovery. 2. Optimal Control Theory. 3. Surfactant Flooding Optimization of Linear Core Experiments. 4. The Discrete Maximum Principle. 5. One-Dimensional Optimization of the Micellar/Polymer EOR Process. 6. Two-Dimensional Optimization of the Micellar/Polymer Process. 7. Two-Dimensional Optimization of the Carbon Dioxide EOR Process. 8. Summation. Index.
In recent years, enhanced oil recovery techniques have received much attention in the oil industry. Enhanced oil recovery methods can be divided into three major categories: thermal processes which include steam flooding, steam stimulation, and in-situ combustion; chemical processes which include surfactant-polymer injection, polymer flooding, and caustic flooding; and miscible displacement processes which include miscible hydrocarbon displacement, carbon dioxide injection of large amounts of rather expensive fluids into oil bearing reservoir formations. Commercial application of any enhanced oil recovery process relies upon economic projections that show a decent return on the investment. Because of high chemical costs, it is important to optimize enhanced oil recovery processes to provide the greatest recovery at the lowest chemical injection cost.
The aim of this book is to develop an optimal control theory for the determination of operating strategies that maximize the economic attractiveness of enhanced oil recovery processes. The determination of optimal control histories or operating strategies is one of the key elements in the successful usage of new enhanced oil recovery techniques. The information contained in the book will therefore be both interesting and useful to all those working in petroleum engineering, petroleum management and chemical engineering.
- No. of pages:
- © Elsevier Science 1987
- 1st January 1987
- Elsevier Science
- eBook ISBN:
@qu:... a valuable contribution to the development of the EOR process ... of interest to the specialist undertaking the detailed development of EOR schemes or studying optimal control techniques. @source: Chemical Engineering Science
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