- : Ms Word, Ms Word Format
- : 60 Pages
- : ₦5000
- : 1-5 Chapters
- Click to DOWNLOAD Materials
APPLICATION OF TIAB’S DIRECT SYNTHESIS TECHNIQUE TO INJECTIVITY AND FALL-OFF PRESSURE TRANSIENT TEST UNDER NON-ISOTHERMAL CONDITION
Abstract:
The injectivity and fall-off pressure transient test is a widely used method in reservoir engineering to evaluate the properties and productivity of oil and gas reservoirs. However, conventional analysis techniques often assume isothermal conditions, which may not accurately represent the actual reservoir behavior. This abstract presents the application of TIAB’s (Thermally Interacting Aquifer and Reservoir Boundary) direct synthesis technique to the injectivity and fall-off pressure transient test under non-isothermal conditions.
The TIAB’s direct synthesis technique is a numerical modeling approach that combines the reservoir and aquifer behavior into a single simulation model, considering the dynamic thermal interaction between the two domains. This technique accounts for the non-isothermal effects resulting from heat transfer between the fluid phases and the porous media.
By applying TIAB’s direct synthesis technique to the injectivity and fall-off pressure transient test, the non-isothermal effects on reservoir behavior can be accurately captured. The thermal interaction between the reservoir and aquifer domains allows for a more realistic representation of fluid flow, pressure distribution, and temperature changes during the test.
The application of TIAB’s direct synthesis technique to non-isothermal conditions provides valuable insights into the reservoir’s behavior, such as the impact of temperature variations on injectivity and pressure falloff. This information is crucial for reservoir engineers to optimize production strategies, estimate reservoir properties, and assess the long-term performance of oil and gas reservoirs.
In summary, this abstract highlights the application of TIAB’s direct synthesis technique to the injectivity and fall-off pressure transient test under non-isothermal conditions. The integration of thermal interactions between the reservoir and aquifer domains provides a more accurate representation of fluid flow and temperature changes, enabling better understanding and characterization of reservoir behavior. The results obtained through this approach can significantly improve reservoir management and decision-making processes in the oil and gas industry.
APPLICATION OF TIAB’S DIRECT SYNTHESIS TECHNIQUE TO INJECTIVITY AND FALL-OFF PRESSURE TRANSIENT TEST UNDER NON-ISOTHERMAL CONDITION, GET MORE OIL AND GAS/PETROLEUM ENGINEERING PROJECT TOPICS AND MATERIALS
