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Smart Nano-EOR Process for Abu Dhabi Carbonate Reservoirs

机译:ABU DHABI碳酸盐储层的智能纳米EOR工艺

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EOR technologies such as CO2 flooding, chemical floods and WAG have been on the forefront of oil and gas R&D for the past 4 decades. While most of them are demonstrating very promising results in both lab scale and field pilots, the thrive for exploring additional EOR technologies while achieving full field application has yet to be achieved. Nano EOR is among the new frontiers that demand more improvements, therefore, new concepts and extensive innovative experimental procedures are required to identify and address key associated uncertainties. The procedure proposed in this report includes an understanding of the Nano-EOR physical processes on lab-scale models of carbonate reservoir retrieved core plugs. (Ogolo et al., 2010). The main objectives include reducing the HSE concerns of handling and transporting the nano particles as well as targeting the unswept oil. Carbonate core-plugs from Abu Dhabi producing oilfields with porosity ranging from 10 to 24% and permeability ranging from 77 to 149 mD were tested. Several nano particles including Fe (III) O, CuO and NiO of 50 nm range were tested after the waterflooding stage and compared for ultimate recovery factors. The nano EOR was also compared on the same cores subjected to the same conditions against chemical EOR and Electrically Enhanced Oil Recovery (EEOR). A Smart Nano-EOR process is proposed in this study that allows shifting from simultaneous to sequential Nano-EOR alongside EK. The results obtained on our tested cores reveal that the waterflooding recovery factor ranged from 48 to 63% based on the rock properties, whereas Smart Nano-EOR revealed an ultimate recovery factor of 57 to 85% respectively. The Smart Nano-EOR process is fine tuned to reach the ultimate recovery factor when the specific mechanism is optimized based on both rock and fluid properties. Uncovering physical process enablers will be discussed in this paper to further understand the mechanisms involved in Smart- Nano-EOR.
机译:EOR技术,如CO2驱,化学驱和WAG已对石油和天然气的R&d的最前沿,在过去的40年。虽然大多数人都在实验室规模和领域飞行员展示了非常可喜的成果,在蓬勃发展探索更多的EOR技术,同时实现全领域的应用还没有实现。纳米EOR是需要更多的改进,新的领域之一,因此,新的理念和丰富的创新性实验过程需要识别和解决关键的不确定性。本报告中提出的程序包括关于碳酸盐储检索芯插头的实验室规模的模型的纳米EOR物理过程的理解。 (Ogolo等人,2010)。的主要目标包括减少的处理和运输的纳米颗粒以及靶向未波及油的HSE担忧。从阿布扎比生产具有孔隙度为10〜24%的范围内和渗透性油田范围从77至149毫达西碳酸盐芯插头进行了测试。几个纳米粒子包含Fe(III)O,CuO和50纳米范围的NiO注水阶段之后进行测试和对最终采收率因子相比较。纳米EOR也比较受到抗化学EOR和电提高石油采收率(EEOR)在相同的条件相同的内核上。甲智能纳米EOR方法在本研究中,允许从同时移位到顺序纳米EOR旁边EK提出。在我们的测试核心获得的结果表明,该注水采收率范围为48至63%,基于岩石特性,而智能纳米EOR分别揭示的57%至85%的最终采收率。智能纳米EOR过程进行微调时的具体机制基于两者岩石和流体性质上被优化,以达到最终采收率。揭开物理过程使能器将在本文进行讨论,以进一步了解参与SMART-纳米EOR的机制。

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