Prediction Method of Cutting Settling Velocity in Gas-liquid Two-phase Flow Based on Multi-gene Genetic Programming

Zhaopeng Zhu, Xianzhi Song, Liang Han, Rui Zhang, W. Liu, Jiasheng Fu, Xiaoli Hu, Dayu Li, Furong Qin, Donghan Yang
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Abstract

The cuttings settling process becomes erratic in the complex gas-liquid mixture under gas kick, it is very difficult to accurately describe the migration process of cuttings. Meanwhile, the traditional empirical formula based on fitting experimental data is difficult to accurately predict the complex cuttings settlement. Neural network and other intelligent models with high prediction accuracy are difficult to be popularized and applied due to their black box properties. Multi-gene genetic programming can accurately describe complex nonlinear problems and automatically optimize the structure and parameters of the mathematical model, so as to effectively reduce the complexity of the model. Based on the multi-gene genetic programming algorithm, this study used a variety of input parameters to predict the settling velocity, explored the relationship between the input variables and the result, and established an explicit mathematical model of settling velocity with RMSE of 0.0896 in test set and R2 of 0.9292, which breaks the accuracy limits of traditional empirical model and the inexplicability of neural network model. This new method for predicting cuttings settling velocity in gas-liquid mixture can provide theoretical guidance for efficient cuttings migration in wellbore during gas kick.
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基于多基因遗传规划的气液两相流切削沉降速度预测方法
在气涌作用下的复杂气液混合物中,岩屑沉降过程变得不稳定,很难准确描述岩屑的运移过程。同时,基于拟合实验数据的传统经验公式难以准确预测复杂岩屑沉降。神经网络等具有较高预测精度的智能模型由于其黑箱特性而难以推广应用。多基因遗传规划可以准确地描述复杂的非线性问题,并自动优化数学模型的结构和参数,从而有效地降低模型的复杂性。本研究基于多基因遗传规划算法,利用多种输入参数预测沉降速度,探索输入变量与结果之间的关系,建立了显式沉降速度数学模型,测试集中RMSE为0.0896,R2为0.9292,突破了传统经验模型的精度限制和神经网络模型的难以解释性。这种预测气液混合物中岩屑沉降速度的新方法可以为气涌过程中岩屑在井筒中的有效运移提供理论指导。
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