PTA/RTA Module 1
Modern pressure transient analysis (PTA) and rate transient analysis (RTA) from theory to practice
Strong practical emphasis on real data with many real life examples
Immediate return on investment with attendees able to perform commercial analysis upon completion of the course
The KAPPA pressure / rate transient analysis Module 1 course (PTA/RTA Module 1) has been designed to teach the generic methodology and the practice of pressure transient analysis (PTA) and rate transient analysis (RTA) in addition to the mechanics of Saphir and Topaze software which is learnt almost as a by-product.
The emphasis is therefore on a visual and conceptual approach to interpretation including only essential mathematics.
Full theory, including formulae and derivations are provided, as well as the conceptual explanation of PTA and RTA in the accompanying KAPPA dynamic data analysis (DDA) handbook provided to each attendee.
Field examples are used to illustrate each concept.
By the end of the course the attendee should be capable of performing analyses and developing interpretations.
In addition, the attendee should have the foundations sufficient for developing further experience in transient and production analysis.
Introduction to PTA and RTA
When do we perform PTA or RTA?
Basic theory of diffusion PTA / RTA
The basic principles and terminology governing both methods.
Introduction to Darcy’s law and the equation of state leading to the diffusivity equation, the principle of superposition, infinite-acting radial flow, wellbore storage and skin and pseudo-steady state.
Methodology from the simple straight line Horner to the current model-on-the-fly Bourdet derivative.
The basic Saphir features including the interpretation path of load, edit, synchronizing, model, classical methods, the derivative and the application to field examples.
Finite/infinite conductivity fractures, limited entry and horizontal wells.
Homogenous and heterogeneous models behavior including 2Φ, 2κ and composite.
Single limit, intersecting, parallel faults and closed system.
Includes typical errors encountered when diagnosing a boundary effect with an illustration of superposition effects and the influence of production duration on the analysis.
Methodology from the basic empirical methods including Arps and Fetkovich to the current modern Blasingame, material balance and loglog diagnostic plots.
The basic Topaze features including the interpretation path of load, edit, model, p(q), q(p), fast model and the application to field examples.
Basic numerical PTA /RTA
The principle of the linear (single phase) numerical model, how to build a model including defining the well type, composite zones, faults and thickness.
The IPR AOF options in Saphir and specific gas testing features.
No public course planned
All courses are conducted in English unless otherwise notified.
To be announced
Have questions ?
To be announced