计算机科学
超参数
深度学习
人工神经网络
可靠性(半导体)
水力压裂
人工智能
卷积神经网络
油田
储层模拟
非常规油
体积热力学
激活函数
循环神经网络
机器学习
石油工程
地质学
油页岩
物理
古生物学
功率(物理)
量子力学
作者
Ming Yue,Tianru Song,Qiang Chen,Mingpeng Yu,Yuhe Wang,Jiulong Wang,Shuyi Du,Haoran Song
标识
DOI:10.1080/10916466.2022.2096635
摘要
It is very important to utilize hydraulic fracturing for unconventional reservoir development. Accurate prediction of effective stimulated reservoir volume (SRV) after fracturing facilitates production evaluation. However, the traditional methods to predict SRV are time consuming and the precision cannot fully meet the requirements. To overcome the shortcomings, a new approach was presented using deep learning which includes four procedures. Firstly, the datasets were collected by numerical simulation considering non-Darcy flow characteristics. Additionally, the Branched Deep Neural Network model (B-DNN) was established after data fusion through adding a branch neural network. Then the optimal hyperparameters were obtained after adjusting to satisfy model accuracy and reliability. Finally, the prediction results of B-DNN and convolutional neural network (CNN) and recurrent neural network (RNN) were compared. The results show that the model with Softplus activation function, four hidden layers, and 250 neurons in each layer would have the best calculation results. The proposed model has good agreement with actual field data which can reach 97%. Furthermore, compared with the CNN and RNN models, it is shown that the B-DNN model has considerable prediction accuracy and is less time-consuming. This deep learning model provides new insight for production evaluation in the fractured tight oil reservoir.
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