P3
Postperforating treatment
Remove debris from existing perforations in permeable rocks and increase productivity or injectivity.
The Tempo™ instrumented docking perforating gun system is the industry’s first perforating gun system to fully integrate a plug‑in gun with real‑time advanced downhole measurements obtained throughout the operation. This unique combination significantly mitigates operational risk while increasing safety, reliability, and efficiency. By generating and confirming dynamic underbalance in the well, the Tempo system effectively removes perforation debris to optimize productivity.
Monitors and confirms downhole conditions before, during, and postperforating
Eliminates complex wiring and crimping, reducing human error risks and perforating misfires
Streamlines deployment with up to 40 plug-in guns for perforating multiple reservoir zones in a single trip
Provides compliance with API RP 67 Group 2 specifications and radio frequency (RF) protection
The proprietary docking components of the compact plug-in gun design simplify assembly and eliminate the major causes of perforating misfires: technique-sensitive crimping and wiring. The system can streamline the deployment of up to 40 plug-in guns for selective initiation to efficiently perforate multiple intervals in a single descent into the well. Both single and selective perforating guns can be quickly armed offline to further support operational safety and efficiency.
The complete suite of real-time data acquired by the Tempo system makes it possible to confirm and optimize perforating design and execution. The ruggedized technology obtains pressure, temperature, casing collar locator, and optional gamma ray before, during, and after perforating without the need for a shock absorber.
Exact gun placement is ensured by the dual correlation capabilities, and new high-precision pressure measurements verify the intrinsic application of dynamic underbalance for creating clean perforations that drive productivity. The Tempo system also accurately measures high-speed dynamic shock, which is a critical input parameter to help validate modeling for future operations.