Research on deep well drilling rate of penetration prediction method based on TCN-transformer model

Drilling rate of penetration (ROP) is an important indicator for achieving cost reduction in drilling operations and formulating plans. Accurately predicting the ROP is the first step to improving the ROP and optimizing the drilling plan. In view of the current problem of low accuracy in predicting ROP, this paper establishes a prediction model based on Transformer, performs time series processing on the data set, and conducts simulation experiments on single-well data sets, block data sets, partial block data (data below 3000 m), ascending order data sets, and sequential order data sets. It was found that the ascending order dataset had the highest prediction accuracy. To further enhance the prediction ability, the temporal convolutional network (TCN) is introduced to improve the accuracy of prediction. The actual drilling data of a certain block in the Sichuan Basin was selected for training. The data set was arranged in ascending order of blocks, and the prediction accuracy of the TCN-Transformer model reached 0.989. In addition, new well data outside the dataset was used for verification, and the prediction accuracy reached 0.979. It is believed that this method can be extended to the entire block and has good prediction accuracy, which can meet the field application requirements.

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Publication Details

Journal
Scientific Reports
Published
2026-02-26
DOI
https://doi.org/10.1038/s41598-026-41298-5
Primary Topic
Drilling and Well Engineering
Type
article
Field-Weighted Citation Impact
0.00

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Research on deep well drilling rate of penetration prediction method based on TCN-transformer model

Liu Yuehao, Zeng Guodong, Guo Yang, Shi Xiangchao et al.
Scientific Reports
Drilling and Well Engineering
article

Research on deep well drilling rate of penetration prediction method based on TCN-transformer model

Liu Yuehao, Zeng Guodong, Guo Yang, Shi Xiangchao, Jiang Junze
article en

Abstract

Drilling rate of penetration (ROP) is an important indicator for achieving cost reduction in drilling operations and formulating plans. Accurately predicting the ROP is the first step to improving the ROP and optimizing the drilling plan. In view of the current problem of low accuracy in predicting ROP, this paper establishes a prediction model based on Transformer, performs time series processing on the data set, and conducts simulation experiments on single-well data sets, block data sets, partial block data (data below 3000 m), ascending order data sets, and sequential order data sets. It was found that the ascending order dataset had the highest prediction accuracy. To further enhance the prediction ability, the temporal convolutional network (TCN) is introduced to improve the accuracy of prediction. The actual drilling data of a certain block in the Sichuan Basin was selected for training. The data set was arranged in ascending order of blocks, and the prediction accuracy of the TCN-Transformer model reached 0.989. In addition, new well data outside the dataset was used for verification, and the prediction accuracy reached 0.979. It is believed that this method can be extended to the entire block and has good prediction accuracy, which can meet the field application requirements.

Scientific Reports
Southwest Petroleum University (CN), State Key Laboratory of Oil and Gas Reservoir Geology and Exploitation (CN), PLA Army Service Academy (CN)
Southwest Petroleum University
Openalex Percentile: Top 44%
Drilling and Well Engineering
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