Dejen Teklu Asfha, Abdul Halim Abdul Latiff, Daniel Asante Otchere, Bennet Nii Tackie-Otoo, Ismailalwali Babikir, Muhammad Rafi, Zaky Ahmad Riyadi, Ahmad Dedi Putra, Bamidele Abdulhakeem Adeniyi
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引用次数: 0
摘要
防砂是富含砂储层中众多碳氢化合物生产井一直面临的挑战。这些油井中的产砂会对设备造成损害,降低生产率,并导致侵蚀,从而损坏水下设备、生产设备、完井和地面设施。这一问题会损害油井的机械完整性,导致碳氢化合物产量降低和运营费用增加。本综述评估了各种产砂机制,包括地质和机械生产方法以及与流体相关的方面,并对这些方面进行了深入研究,以全面了解问题的复杂性和砂预测方法的现状。本研究对经验相关性、数值模拟和分析模型等产砂预测技术进行了严格评估。研究讨论了这些技术的优点、缺点以及在不同储层环境中的适用性。此外,还强调了结合光纤(FO)技术和机器学习(ML)技术进行实时监测和缓解的潜在好处。案例研究和新的研究都强调了这一综合战略的有效性,它有可能改变行业的防砂实践。本综述中概述的未来愿景包括自动化、数据处理方法和传感器技术的发展,这些发展应能提高产砂预测和缓解的精确性和可靠性。总之,本综述对当前的预测技术水平以及油气井产砂背后的机理进行了广泛分析。这凸显了 FO 和 ML 如何为监测和解决产砂问题提供实时、数据驱动的解决方案,从而最终实现更安全、更有效的碳氢化合物采收作业。
Mechanisms of sand production, prediction–a review and the potential for fiber optic technology and machine learning in monitoring
Sand control is an ongoing challenge in numerous hydrocarbon-producing wells in sand-rich reservoirs. Sand production in these wells can cause damage to equipment, reduce production rates, and lead to erosion that can damage subsea equipment, production equipment, well completions, and surface facilities. This problem can compromise the mechanical integrity of the well, resulting in reduced hydrocarbon production and increased operating expenses. This review evaluates various sand production mechanisms, including geological and mechanical production methodologies, and fluid-related aspects, which are thoroughly investigated to offer a thorough understanding of the complexity of the issue and the state of sand prediction approaches. Empirical correlations, numerical simulations, and analytical models are among the sand production prediction techniques critically assessed in this study. The benefits, drawbacks, and suitability of these techniques for various reservoir environments are discussed. Furthermore, the potential benefits of combining Fiber optic (FO) technologies and machine learning (ML) for real-time monitoring and mitigation are highlighted. This integrated strategy has the potential to transform sand control practices of the industry, as demonstrated by case studies and new research that highlights its effectiveness. The future vision outlined in this review includes developments in automation, data processing methods, and sensor technologies, which should improve the precision and dependability of sand production predictions and mitigation. In conclusion, this review paper provides an extensive analysis of the current level of prediction techniques, as well as the mechanisms behind sand production in oil and gas wells. This highlights how real-time, data-driven solutions for monitoring and addressing sand production problems may be provided by FO and ML, which can ultimately lead to safer and more effective hydrocarbon recovery operations.
期刊介绍:
The Journal of Petroleum Exploration and Production Technology is an international open access journal that publishes original and review articles as well as book reviews on leading edge studies in the field of petroleum engineering, petroleum geology and exploration geophysics and the implementation of related technologies to the development and management of oil and gas reservoirs from their discovery through their entire production cycle.
Focusing on:
Reservoir characterization and modeling
Unconventional oil and gas reservoirs
Geophysics: Acquisition and near surface
Geophysics Modeling and Imaging
Geophysics: Interpretation
Geophysics: Processing
Production Engineering
Formation Evaluation
Reservoir Management
Petroleum Geology
Enhanced Recovery
Geomechanics
Drilling
Completions
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