Dynamic Reservoir Behaviour and Production Due to Periodic Supply of Wind Power

P. Bergmo, T. Holt, J. O. Skogestad
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Abstract

Wind power can replace power from gas turbines and thus reduce the CO2 emissions related to oil production. However, a main challenge with wind power is the variability in power production due to weather variations. The water injection pumps are often major power consuming units. The water pumps were therefore identified as possible non-critical loads in an isolated power system with variable power supply. The power to a non-critical load can be varied and even stopped depending on the power supply. The objective of the present work was to study how variable water injection rates affects oil production. Using simulated wind power curves, water injection profiles for a model oil field were constructed. Reservoir simulations show that the oil production is almost insensitive to variable injection rates if the injected volumes were the same. Lower injected rates and volumes resulted in lower oil production. This was most pronounced in the plateau phase of the production, but later the differences become gradually smaller. Thus, reducing the water injection volumes with 30 % decreased the total oil recovery by less than 5 % after 28 years. If constant water injection rates are needed thermal power can supply wind power. This will increase the CO2 emissions. However, if wind power not used by the water injection pumps can be utilised for other unit operations significant reductions in CO2 emission can still be obtained.
风电周期性供应下的动态储层特性和产量
风力发电可以取代燃气轮机的电力,从而减少与石油生产有关的二氧化碳排放。然而,风力发电的一个主要挑战是由于天气变化而产生的电力的可变性。注水泵往往是主要的耗电装置。因此,水泵被确定为具有可变电源的孤立电力系统中可能的非临界负荷。非关键负载的功率可以根据电源的不同而变化甚至停止。本工作的目的是研究不同的注水速度对石油产量的影响。利用模拟风电曲线,建立了某模型油田注水剖面。油藏模拟结果表明,在注入量相同的情况下,不同的注入速率对原油产量几乎不敏感。较低的注入速率和注入量导致了较低的产油量。这在生产的平稳阶段最为明显,但后来差异逐渐变小。因此,将注水量减少30%,28年后总采收率降低不到5%。如果需要恒定的注水速度,火电可以提供风力发电。这将增加二氧化碳的排放量。然而,如果不被注水泵使用的风能可以用于其他机组操作,仍然可以获得二氧化碳排放的显著减少。
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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