Pc和mwc6 -对用神经网络建模估算凝析油露点压力精度的影响

P. Ikpeka, J. Ugwu, G. Pillai, Paul Russell
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引用次数: 0

摘要

露点压力(DPP)是油藏工程师在制定凝析气藏开发规划时需要评估的重要因素之一。低于露点压力,液体从气相中冷凝出来。这种凝析液在近井区的生产井周围形成了一个“环”或“滩”。通常情况下,由于毛细管压力和多孔介质的相对渗透率,这种液体在饱和度超过临界凝析饱和度(Scc)之前不会流动。因此,准确地预测储层流体的露点压力是十分必要的。在利用神经网络预测露点压力方面已经做了大量的研究。所有这些研究都集中在四个关键输入参数上:储层温度、比重、压缩系数和重组分分子量(C7+)。然而,在本研究中,构建了两个多层感知神经网络(MLPNN)。在开发MLPNN模型时,引入了两个新的输入参数;临界压力和较轻组分(C6-)的分子量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Effect of Pc and MW C6- on the accuracy of Gas Condensate Dewpoint Pressure estimation using Neural network modelling
Dewpoint pressure (DPP) is one of the most important factors to be evaluated by reservoir engineers while planning the development of a gas condensate reservoir. Below the dewpoint pressure, liquid condenses out of the gaseous phase. This liquid condensate forms a “ring” or “bank” around the producing well in the near-well region. Normally this liquid will not flow until its saturation exceeds the critical condensate saturation (Scc) due to the capillary pressure and relative permeability of the porous medium. Hence it is very essential to accurately predict the dewpoint pressure of the reservoir fluid.Numerous studies have been done on predicting dewpoint pressure using neural networks. All of these studies focus on four key input parameters: Reservoir Temperature, Specific gravity, Compressibility factor and Molecular weight of heavier components (C7+). However, in this study, two multi-layer perception neural networks (MLPNN) were built. In developing the MLPNN models two new input parameters were introduced; Critical pressure and Molecular weight of lighter components (C6-).
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