基于AI的油包水乳液流变性模型在深水油田生产管理中的价值创造

Thiago Geraldo Silva, Luis Kin Miyatake, Rafael Barbosa, A. G. Medeiros, Otavio Ciribelli Borges, M. Oliveira, F. M. Cardoso
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引用次数: 1

摘要

这项工作旨在为勘探与生产(E&P)领域提供一种新的范例,利用人工智能对产出流体进行流变测绘,并在整个生产生命周期内预测其性质。预期的收益是加速目标油田优先应用流量改善剂的过程,从而产生预期的收入和价值创造。从多年来收集的不同生产油田的油包水乳液的实验室分析中获得的流变数据用于机器学习框架中,从而实现基于监督学习的建模。人工智能将乳化液粘度推断为输入参数的函数,如原料药比重、含水率和脱水油粘度。乳化液的建模使用的相关性通常不能恰当地表示黏性乳化液。目前,可以通过陆上实验室的流变特性测试来改进经验相关性,这些实验室多年来一直在为Petrobras的不同储层建立数据库。人工智能框架中使用的数据集得到了一个具有泛化能力的机器学习模型,无论是训练数据集还是测试数据集,实验数据和计算数据都具有很好的匹配性。该模型在不同油藏的大量原油中进行了测试,在API重力范围很广的情况下,得到了合适的平均绝对百分比误差。此外,该结果保留了乳液粘度曲线的预期物理行为。因此,这种方法消除了频繁的采样要求,这意味着更低的物流成本和更快的决策过程。此外,通过将人工智能模型嵌入到数值流动模拟软件中,整体流动模型可以更好地表征流体流变特性,从而更可靠地估计出生产曲线。
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AI Based Water-in-Oil Emulsions Rheology Model for Value Creation in Deepwater Fields Production Management
This work aims to present a new paradigm in the Exploration & Production (E&P) segment using Artificial Intelligence for rheological mapping of produced fluids and forecasting their properties throughout the production life cycle. The expected gain is to accelerate the process of prioritizing target fields for application of flow improvers and, as a consequence, to generate anticipation of revenue and value creation. Rheological data from laboratory analyses of water-in-oil emulsions from different production fields collected over the years are used in a machine learning framework, which enables a modeling based on supervised learning. The Artificial Intelligence infers the emulsion viscosity as a function of input parameters, such as API gravity, water cut and dehydrated oil viscosity. The modeling of emulsified fluids uses correlations that, in general, do not represent the viscosity emulsion suitably. Currently, an improvement over empirical correlations can be achieved via rheological characterization using tests from onshore laboratories, which have been generating a database for different Petrobras reservoirs over the years. The dataset used in the artificial intelligence framework results in a machine learning model with generalization ability, showing a good match between experimental and calculated data in both training and test datasets. This model is tested with a great deal of oils from different reservoirs, in an extensive range of API gravity, presenting a suitable mean absolute percentage error. In addition to that, the result preserves the expected physical behavior for the emulsion viscosity curve. Consequently, this approach eliminates frequent sampling requirements, which means lower logistical costs and faster actions in the decision making process with respect to flow improvers injection. Moreover, by embedding the AI model into a numerical flow simulation software, the overall flow model can estimate more reliably production curves due to better representation of the rheological fluid characteristics.
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