通过智能可持续水库管理减少碳足迹

Klemens Katterbauer, A. Marsala, Abdulaziz Al Qasim, A. Yousif
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引用次数: 1

摘要

可持续发展和减少碳足迹已经引起了油气行业的关注,以优化采收率和提高效率。第四次工业革命对油气行业产生了巨大影响,并对减少碳足迹的机会进行了分析。这样就可以对各种油藏作业进行分类,在现场安装永久性传感器和机器人,并降低总体功耗。我们概述了优化油藏性能同时减少碳足迹的新人工智能方法。我们将概述油田作业中主要的碳排放因素,以及它们在油藏整个生产周期中的影响变化。基于这一分析,我们将通过人工智能驱动的优化框架概述改进领域,以减少考虑到不确定性的碳足迹。我们在一个综合油藏模型上分析了该框架的性能,该模型包括几口生产井、注水井和注二氧化碳井。有利于减少油田碳排放的是二氧化碳的再利用和注入,以提高油藏的油气产量。然后,利用创新的自回归网络模型研究了100种不同的情景,以确定这些成分对该领域总体碳排放的影响,并确定其不确定性。然后,将分析结论整合到数据驱动的优化程序中,以最大限度地减少碳足迹,同时最大化油藏性能。展示的最终优化结果概述了显著减少碳足迹的能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Minimizing Carbon Footprint by Smart Sustainable Reservoir Management
Sustainability and reducing carbon footprint has attracted attention in the oil and gas industry to optimize recovery and increase efficiency. The 4th Industrial Revolution has made an enormous impact in the oil and gas industry and on analyzing carbon footprint reduction opportunities. This allows classification of various reservoir operations, installation of permanent sensors and robots on the field, and reduction of overall power consumption. We present an overview of new AI approaches for optimizing reservoir performance while reducing their carbon footprint. We will outline the significant carbon emissions contributors for field operations and how their impact will change throughout the production's lifecycle from a reservoir. Based on this analysis, we will outline via an AI-driven optimization framework areas of improvement to reduce the carbon footprint considering the uncertainty. We analyzed the framework's performance on a synthetic reservoir model with several producing wells, water, and CO2 injecting wells. Beneficial in reducing carbon emissions from the field is the reuse and injection of CO2 for enhancing hydrocarbon production from the reservoir. One hundred different scenarios were then investigated utilizing an innovative autoregressive network model to determine the impact of these components on the overall carbon emission of the field and determine its uncertainty. The conclusions from the analysis were then incorporated into a data-driven optimization routine to minimize carbon footprint while maximizing reservoir performance. The final optimization results of the showcase outlined the ability to reduce the carbon footprint significantly.
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