Developing complex or stranded units has often meant drilling multiple wells, each with its own surface location and added cost. Explore how ConocoPhillips is using capital-efficient horseshoe wells to improve project economics and help unlock previously stranded hydrocarbons: https://bit.ly/4dOqMGq
We back up high efficiency drilling programs by feeding active rig data streams into an automated safety layer. Our software intercepts subtle mechanical deviations and protocol anomalies in real time, ensuring that cutting edge project economics never come at the expense of field safety.
Horseshoe wells = drilling smarter, not more. One surface location, multiple targets underground. Cuts cost, footprint, and hassle. That’s how you make “stranded” resources worth tapping again. Good example of engineering solving both economics and environmental impact. Nice work ConocoPhillips on finding value where others saw limits.
Very insightful, thanks for sharing ConocoPhillips.
EXPECTED ≠ FINAL SAME PROJECT DIFFERENT OUTCOME MEASURED AT SETTLEMENT MONEYFLOWTECH.COM
Horseshoe wells are a smart reliability play. By combining two laterals into one drilling event, you reduce surface well count and associated infrastructure (flowlines, manifolds), which lowers failure points. Also, fewer wellheads mean less leak potential. The operational risk is higher dogleg severity, which can increase tubing wear and rod/tubing friction in artificial lift systems. However, the Eagle Ford pilot shows it is manageable. For stranded units, this improves capital efficiency while maintaining reservoir contact. A good addition to the unconventional toolkit. Key will be monitoring for sand erosion at the turn, where flow direction changes sharply. For those running operations in unconventional plays, are you seeing any specific artificial lift challenges like rod wear or gas interference when dealing with these complex horseshoe trajectories?