Renegade offers a full spectrum of completion diagnostic evaluation tagging solutions to efficiently provide quality accurate data used to increase well production and reduce operating cost. Now more than ever before, well completions are playing an important role in determining well production economics.
In the procedure, specific radioisotopes are mixed with the fluids used to fracture rock formations and to keep the fractured areas open via proppant. Proppant is a solid substance, most often sand, sand that’s treated, or a synthetic ceramic material.
The isotopes work like brands on cattle to help track fluid and/or proppant movement and location.
The frac tagging log uses a spectral gamma ray (GR) detector to measure data such as fracture envelope shape, total vertical height, and efficiency that is evaluated by the injected isotopes return to the wellbore verses the frac flow rate.
During the frac (stimulation) the GR detector logs the entire natural emitting gamma ray spectrum and injected isotopes. The logged spectral notes crucial measurements to determine proppant and/or frac fluid location. The logged data can then be used to refine decisions to generate maximum production.
» DNA Tracing Technology.RENEGADE SERVICES TRACERS ARE COMPOSED OF DNA SEQUENCES THAT ARE ATTACHED TO A METALLIC CORE THEN ENCAPSULATED WITHIN INVISIBLE PARTICLES THAT CAN BE MIXED WITH ANY FLUID PROVIDING IT WITH A UNIQUE FINGERPRINT, WHICH IS EASILY IDENTIFIED AND...
Records entire spectrum of all natural emitting gamma rays and previously injected isotopes during stimulation (frac). Each isotope energy level, measured in electron volts (KeV), is simultaneously recorded at the surface.
(IsoSeal-3) “NO WASH” is designed to eliminate radioactive residue in fluids or tubular goods in wells while being fractured, acidized, or cemented. The basic material (beads) has a lower density and higher sheer stress tolerance than other types of products being used.
Completion techniques can be analyzed using gamma ray emitting isotopes and spectral gamma ray logging. Examples of Austin Chalk and Bakken Shale evaluations show how operators can qualitatively compare stimulation and diversion effectiveness, and completion methods by using tracer technology.
The effectiveness of hydraulic fracturing operations is commonly evaluated by tagging the materials pumped downhole with one or more gamma-ray-emitting isotopes and subsequently logging the borehole with a gamma ray spectroscopy tool.
The use of multiple gamma ray tracers has helped evaluate acid diversion in several North Sea completions. The use of multiple radioactive tracers and subsequent logging with advanced gamma spectroscopy techniques offers a cost-effective and convenient method for direct measurement of vital stimulation parameters such as diverter effectiveness.
Because the success of well stimulation treatments often dictates the economic justification of petroleum field development, much effort has been devoted to the measurement of various parameters associated with this critical and costly operation. Specifically, the prediction, measurement, and optimization of induced hydraulic fracture geometry.
Many production engineers are beginning to use three-dimensional (3-D) fracture propagation models to design and analyze hydraulic fracture treatments.
Logging tools can now quantify multiple isotopes, including the volume of individual isotopes present and their radial position away from the wellbore. In conjunction with those improvements, tracers have been developed that eliminate “wash off” effects of conventional tracers.
The application of multiple radioactive tracers (Zero Wash®) and spectral gamma ray imaging has allowed for improved diagnostics of stimulation treatment distribution.