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A Machine-Learning-Based Gas Lift Optimization Workflow for Unconventional Fields

Machine Learning 2026-07-28 v1 Artificial Intelligence Software Engineering

Abstract

In this paper, we present an automated data-driven workflow using Machine Learning (ML) for gas lift optimization in unconventional fields. This workflow integrates a ML model that accurately forecasts the Gas Lift Performance Curve, and a Bayesian Optimization Framework to solve for the optimal gas injection rates under the constraints of facility capacity. The ML model leverages the historical production time series data without requiring downhole gauges or multi-rate well tests. We piloted this workflow on 30 wells across 5 well pads in Bakken and obtained >5% production uplift on average. With the success of the pilot, we have now fully-deployed this workflow in Bakken across 200+ gas lift and plunger-assisted gas lift (PAGL) wells. Moreover, the ML-based gas lift optimization workflow presented in this paper is an effective and economic solution for other assets where downhole data or multi-rate testing are not available/feasible due to cost or facility constraints.

Cite

@article{arxiv.2607.25885,
  title  = {A Machine-Learning-Based Gas Lift Optimization Workflow for Unconventional Fields},
  author = {Sha and Miao and Alexandra Vendetti and Logan Smart and Gunta Chomchalerm and Yang Chen and Christopher Frazier and Dustin Haralson and Jeremy Sorenson and Xiao Ma and Huafei Sun and Aaron Shinn and Haining Zheng and Xiao-Hui Wu and Peng Xu},
  journal= {arXiv preprint arXiv:2607.25885},
  year   = {2026}
}

Comments

11 pages, 13 figures