Bringing Huge Core Analysis Legacy Data Into Life Using Machine Learning

S. Zulkipli, B. Ralphie, J. Shah, Taufik Nordin, R. Masoudi, M. A. N. C. A. Razak, Ismail Marzuki Gazali, J. Toelke, S. Koronfol, Jacob Proctor, David Gonzales, Valentyn Vovk, Xuebei Shi, Huiwen Sheng
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Abstract

Advances in the fields of information technology, computation, and predictive analytics have permeated the energy industry and are reshaping methods for exploration, development, and production. These technologies can be applied to subsurface data to reliably predict a host of properties where only few are available. Among the numerous sources of subsurface data, rock and fluid analysis stand out as the means of directly measuring subsurface properties. The challenge in this work is to maximize information gain from legacy pdf reports and unstructured data tables that represented over 70 years of laboratory work and investment. The implication of modeling this data into an organized data store means better assessment of economic viability and producibility in frontier basins and the capability to identify bypassed pay in old wells that may not have rock material. This paper presents innovative and agile technologies that integrate data management, data quality assessment, and predictive machine learning to maximize the company asset value using underutilized legacy core data. The developed machine learning algorithms identify potential outliers, benchmark the valuable data against current industry standards, increase the confidence in data quality and avoid amplifying error in predicting reservoir properties. The workflow presented in the paper is expected to reduce uncertainties in subsurface studies caused by limited core data, improper analog selection, high cost, limited time for acquiring new cores, and long delivery times of core analysis data. The workflow reduces the requirement for subsurface formation evaluation rework as new data becomes available at later project stages resulting in optimized field development. The workflow enhanced by machine learning also improves the prediction and propagation of reservoir properties to uncored borehole sections. In conclusion, managing legacy core data and transforming it to generate new subsurface insights are critical step to establish a reliable database in support of business excellence and the digitalization journey. Innovative machine learning tools continue to unlock new values from legacy core data that significantly impact the entire reservoir life cycle including reserves booking, production forecasting, well placement, and completion design.
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使用机器学习将巨大的核心分析遗留数据带入生活
信息技术、计算和预测分析领域的进步已经渗透到能源行业,并正在重塑勘探、开发和生产的方法。这些技术可以应用于地下数据,以可靠地预测大量可用的属性。在众多地下数据来源中,岩石和流体分析作为直接测量地下性质的手段脱颖而出。这项工作的挑战是最大限度地从传统的pdf报告和非结构化数据表中获取信息,这些数据表代表了70多年的实验室工作和投资。将这些数据建模到一个有组织的数据存储中,意味着可以更好地评估前沿盆地的经济可行性和产能,并能够识别可能没有岩石材料的老井中被绕过的产层。本文介绍了集成数据管理、数据质量评估和预测机器学习的创新和敏捷技术,以利用未充分利用的遗留核心数据最大化公司资产价值。开发的机器学习算法可以识别潜在的异常值,根据当前的行业标准对有价值的数据进行基准测试,提高对数据质量的信心,避免在预测油藏属性时放大误差。本文提出的工作流程有望减少由于岩心数据有限、模拟选择不当、成本高、获取新岩心时间有限以及岩心分析数据交付时间长而导致的地下研究中的不确定性。随着项目后期获得新数据,该工作流程减少了地下地层评估返工的需求,从而优化了油田开发。通过机器学习增强的工作流程也改善了储层属性到未取心井段的预测和传播。总之,管理遗留核心数据并将其转化为新的地下洞察是建立可靠数据库以支持卓越业务和数字化之旅的关键步骤。创新的机器学习工具不断从传统的岩心数据中释放新的价值,这些数据对整个油藏生命周期产生重大影响,包括储量预订、产量预测、井位和完井设计。
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