Multiphase flowrate measurement with time series sensing data and sequential model

Haokun Wang, Delin Hu, Yunjie Yang, Maomao Zhang
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引用次数: 7

Abstract

Accurate multiphase flowrate measurement is challenging but crucially important in energy industry to monitor the production processes. Machine learning has recently emerged as a promising method to estimate the multiphase flowrate based on different flow meters. In this paper, we propose a Convolutional Neural Network (CNN) combined with Long-Short Term Memory (LSTM) model to estimate the mass liquid flowrate of oil/gas/water three-phase flow based on the Venturi tube. The range of the estimated mass flowrate of the liquid phase varies from 92.1 to 10000 kg/h. We collect time series sensing data from Venturi tube installed in a pilot-scale multiphase flow facility and utilize single-phase flowmeters to acquire reference data before mixing. The experimental results suggest the proposed CNN-LSTM model is able to effectively deal with the time series sensing data from Venturi tube and achieve acceptable liquid flowrate estimation under different flow conditions.
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多相流量测量的时间序列传感数据和序列模型
准确的多相流量测量在能源工业生产过程监控中具有挑战性,但又至关重要。近年来,机器学习作为一种很有前途的基于不同流量计的多相流量估计方法。本文提出了一种基于文丘里管的卷积神经网络(CNN)结合长短期记忆(LSTM)模型来估计油/气/水三相流的质量液流量。液相的估计质量流量范围为92.1 ~ 10000kg /h。我们从安装在中试多相流装置上的文丘里管收集时间序列传感数据,并在混合前利用单相流量计获取参考数据。实验结果表明,本文提出的CNN-LSTM模型能够有效处理文丘里管时间序列传感数据,并在不同流动条件下获得可接受的液体流量估计。
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