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It’s not enough for a reservoir engineer to know the flow calculations with respect to individual wells; they must also put this into within the overall scheme of reservoir development. Doing this involves asking how the rate of production of an existing well, or newly drilled well can be estimated if multiple wells are present in the same area. It also means considering how to determine the effect on flow of introducing newly drilled wells into an already producing field. Finding the answers to these issues involves well testing.
In these lessons on Petroleum Well Testing, we’ll explore the fundamentals of well testing, as well as learn about the Superposition Theorem and why it is one of the most important tools for a reservoir engineer. We’ll continue by discussing the most common well-testing techniques and the best case uses for each. You’ll also learn key aspects of water coning and water influx and the two models that are used to predict and simulate the performance of water-bearing permeable rock.
It is aimed at reservoir engineers who need to place individual-well flow calculations within the overall scheme of reservoir development.
It covers the fundamentals of well testing, the Superposition Theorem, the most common well-testing techniques and their best use cases, water coning and water influx, and the steady-state and unsteady-state models for water-bearing permeable rock.
The course builds skills in aquifer testing, hydraulic testing, oil well workover, petroleum engineering, soak testing, and well testing.
Lessons include pressure buildup analysis techniques, multi-rate draw-down testing, fundamentals of well surveying, afterflow analysis, and break-through time and critical rate determination.
It explains key aspects of water coning and water influx and teaches the steady-state and unsteady-state methods used to predict and simulate the performance of water-bearing permeable rock.