Adaptive Artificial Neural Networks for Water-Cut Estimation Using Near-Infrared Optical Sensors

Qin Li, K. Fjalestad
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引用次数: 1

Abstract

In this paper, we present a water-cut estimator utilizing the function approximation capability of an artificial neural network (ANN). The inputs to the ANN are optical sensor readings in a Red-Eye water-cut meter, which features the near-infrared (NIR) absorption spectroscopy technology. The initial training of the ANNwas done with a data set acquired from our multi-phase flow-loop test facility, which was filled with live oil, water and gas. The test fluid stream was adjusted with good ranges of water-cut and gas-volume fractions which were supposed to cover the situations that can be foreseen in real production. However, clear discrepancies between the outputs of the ANN and the water-cut values from BS&W measurmentswere observedwhen the ANN was applied to actual production data measured by Red-Eye meters installed at two offshore wells. To address this issue and equip the ANN with self-adapting capability in real application, we propose a Bayesian approach to update the parameters of the ANN based on both initial flow-loop data and collected field data. The performance of the adapted ANN on both the data sets shows the effectiveness of the method.
基于近红外光学传感器的自适应人工神经网络含水率估计
本文提出了一种利用人工神经网络(ANN)的函数逼近能力的含水率估计器。人工神经网络的输入是红眼含水率计的光学传感器读数,该仪器具有近红外(NIR)吸收光谱技术。人工神经网络的初始训练使用了从多相流环测试设备获得的数据集,该设备充满了活的油、水和天然气。对测试流体进行了调整,使含水和气体积分数的范围能够很好地覆盖实际生产中可以预见的情况。然而,当将人工神经网络应用于安装在两口海上油井的红眼仪表测量的实际生产数据时,发现人工神经网络的输出结果与BS&W测量的含水率值之间存在明显差异。为了解决这一问题,使人工神经网络在实际应用中具有自适应能力,我们提出了一种基于初始流环数据和现场采集数据的贝叶斯方法来更新人工神经网络的参数。改进后的人工神经网络在两个数据集上的性能表明了该方法的有效性。
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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