Drilling Optimization Applying Machine Learning Regression Algorithms

Freddy J. Marquez
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引用次数: 1

Abstract

Machine Learning is an artificial intelligence subprocess applied to automatically and quickly perform mathematical calculations to data in order to build models used to make predictions. Technical papers related to machine learning algorithms applications have being increasingly published in many oil and gas disciplines over the last five years, revolutionizing the way engineers approach to their works, and sharing innovating solutions that contributes to an increase in efficiency. In this paper, Machine Learning models are built to predict inverse rate of penetration (ROPI) and surface torque for a well located at Gulf of Mexico shallow waters. Three type of analysis were performed. Pre-drill analysis, predicting the parameters without any data of the target well in the database. Drilling analysis, running the model every sixty meters, updating the database with information of the target well and predicting the parameters ahead the bit. Sensitivity parameter optimization analysis was performed iterating weight on bit and rotary speed values as model inputs in order identify the optimum combination to deliver the best drilling performance under the given conditions. The Extreme Gradient Boosting (XGBoost) library in Python programming language environment, was used to build the models. Model performance was satisfactory, overcoming the challenge of using drilling parameters input manually by drilling bit engineers. The database was built with data from different fields and wells. Two databases were created to build the models, one of the models did not consider logging while drilling (LWD) data in order to determine its importance on the predictions. Pre-drill surface torque prediction showed better performance than ROPI. Predictions ahead the bit performance was good both for torque and ROPI. Sensitivity parameter optimization showed better resolution with the database that includes LWD data.
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应用机器学习回归算法的钻井优化
机器学习是一种人工智能子过程,用于自动快速地对数据进行数学计算,以构建用于预测的模型。在过去的五年中,与机器学习算法应用相关的技术论文在许多石油和天然气学科中越来越多地发表,彻底改变了工程师的工作方式,并分享了有助于提高效率的创新解决方案。在本文中,建立了机器学习模型来预测墨西哥湾浅水区一口井的反渗透速率(ROPI)和表面扭矩。进行了三种类型的分析。钻前分析,在没有目标井数据的情况下进行参数预测。钻井分析,每隔60米运行一次模型,用目标井的信息更新数据库,并提前预测钻头参数。为了确定在给定条件下提供最佳钻井性能的最佳组合,进行了灵敏度参数优化分析,迭代钻头权重和转速值作为模型输入。使用Python编程语言环境中的极限梯度增强(XGBoost)库来构建模型。模型性能令人满意,克服了钻头工程师手动输入钻井参数的挑战。该数据库是根据来自不同油田和井的数据建立的。建立了两个数据库来构建模型,其中一个模型没有考虑随钻测井(LWD)数据,以确定其对预测的重要性。钻前表面扭矩预测效果优于ROPI。预测结果表明,钻头的扭矩和ROPI都很好。灵敏度参数优化在包含随钻测井数据的数据库中显示出更好的分辨率。
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