基于 XGBoost 算法的致密砂岩原位应力预测模型

IF 0.7 4区 工程技术 Q4 MINING & MINERAL PROCESSING Journal of Mining Science Pub Date : 2024-09-01 DOI:10.1134/s1062739124020157
Du Tong, Li Yuwei
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引用次数: 0

摘要

摘要 本文采用 XGBoost 算法计算岩石原位应力。通过使用皮尔逊相关系数法,确定与最小水平主应力相关性最好的测井参数为深度、GR、LLD、ILD、AC、VCA,与最大水平主应力相关性最好的测井参数为深度、GR、SP、CAL、DEN:深度、GR、SP、CAL、DEN。为了验证模型的性能,使用了线性回归、支持向量机和随机森林模型进行比较。为了提高泛化性能,使用了(k\)-倍交叉验证法。结果表明,使用 XGBoost 算法预测少量数据的岩石原位应力,平均准确率高达 94%,泛化性能良好。线性回归模型的拟合速度较快,但拟合精度最低。随机森林模型和支持向量机模型介于两者之间。结果证明本文的研究方法具有一定的普适性,可以推广用于解决其他岩石原位应力预测问题。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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In-Situ Stress Prediction Model for Tight Sandstone Based on XGBoost Algorithm

Abstract

This article uses XGBoost algorithm to calculate rock in-situ stress. By using Pearson correlation coefficient method, it is determined that the logging parameters with the best correlation with minimum horizontal principal stress are Depth, GR, LLD, ILD, AC, VCA, with maximum horizontal principal stress are: Depth, GR, SP, CAL, DEN. In order to verify the performance of the model, linear regression, support vector machine, and random forest models are used for comparison. In order to improve the generalization performance, the \(k\)-fold cross-validation method is used. The results show that using XGBoost algorithm to predict rock in-situ stress with a small amount of data has a high average accuracy of 94% and good generalization performance. The linear regression model has a faster fitting speed, but the fitting accuracy is the lowest. The random forest and support vector machine models are in-between. The result confirms that the research method in this article has certain universality and can be extended to solve other rock in-situ stress prediction problems.

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来源期刊
Journal of Mining Science
Journal of Mining Science 工程技术-矿业与矿物加工
CiteScore
1.70
自引率
25.00%
发文量
19
审稿时长
24 months
期刊介绍: The Journal reflects the current trends of development in fundamental and applied mining sciences. It publishes original articles on geomechanics and geoinformation science, investigation of relationships between global geodynamic processes and man-induced disasters, physical and mathematical modeling of rheological and wave processes in multiphase structural geological media, rock failure, analysis and synthesis of mechanisms, automatic machines, and robots, science of mining machines, creation of resource-saving and ecologically safe technologies of mineral mining, mine aerology and mine thermal physics, coal seam degassing, mechanisms for origination of spontaneous fires and methods for their extinction, mineral dressing, and bowel exploitation.
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