Electromagnetic Induction Heating Technology for Enhanced Heavy Oil and Bitumen Recovery

A. Sherwali, M. Noroozi, W. Dunford
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Abstract

This paper demonstrates how a novel electromagnetic induction heating technology can be used to recover oil from the Athabasca oil sands of Alberta with minimal environmental impact. The paper compares the new technology to other electromagmetic heating technologies for oil sands, exhibits how electromagnetic induction heating is coupled to the reservoir, and addresses requirements of the new technology for economic production. The patent pending inductor design generates thermal energy in a reservoir model representing a 33 meter pay zone with properties for the lower McMurray formation in an area north of Fort McMurray within the Athabasca oil sands deposit. Electromagnetic energy is coupled to the reservoir in an iterative process that enables operators to monitor and control reservoir temperature, pressure, fluid production, and energy to oil ratio, to enhance recovery of heavy oil and bitumen. This is performed by interfacing commercial electromagnetic and reservoir simulators using an in-house coupling script. The results demonstrate an ultimate oil recovery factor of +70% with an energy to oil ratio lower than 200 kilowatt hour per barrel. This is less energy per barrel than the average energy required by steam assisted gravity drainage. Though not compulsory for the process, it is observed that oil recovery is improved with water injection. This is mainly because the amount of electromagnetic energy coupled to the reservoir correlates with water saturation in the near wellbore region. Water injection helps maintain water saturation levels and improves heat convection further into the reservoir. Nonetheless, there is no need for external water supply, because the volume of injected water required to improve oil recovery is comparable to the overall volume of water produced from the reservoir. Unlike other recovery methods, this technology is expected to have low energy intensity, zero emissions, and minimized land footprint leading to responsible bitumen recovery. This paper sheds light on the capability of an innovative clean energy technology to enhance bitumen recovery from the Athabasca oil sands in Alberta. The novel technology takes advantage of clean energy to recover oil at a lower energy to oil ratio than the average ratio achieved with steam injection methods.
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提高稠油沥青采收率的电磁感应加热技术
本文展示了一种新的电磁感应加热技术如何在对环境影响最小的情况下从阿尔伯塔省的阿萨巴斯卡油砂中回收石油。通过与其他油砂电磁感应加热技术的比较,阐述了电磁感应加热与油砂储层的耦合关系,提出了新技术对经济生产的要求。正在申请专利的电感器设计在一个储层模型中产生热能,该储层模型代表一个33米的产层,该产层位于阿萨巴斯卡油砂矿床内Fort McMurray北部地区的McMurray地层下部。电磁能量在迭代过程中与储层耦合,使作业者能够监测和控制储层温度、压力、流体产量和能油比,以提高稠油和沥青的采收率。这是通过使用内部耦合脚本连接商业电磁和油藏模拟器来实现的。结果表明,在能量油比低于200千瓦时/桶的情况下,最终采收率为+70%。这比蒸汽辅助重力排水所需要的平均能量要少。虽然该过程不是强制性的,但可以观察到,注水可以提高采收率。这主要是因为耦合到储层的电磁能量与近井区域的含水饱和度有关。注水有助于保持水饱和度,并进一步改善储层的热对流。然而,不需要外部供水,因为提高采收率所需的注入水量与油藏产出水量相当。与其他回收方法不同,该技术有望具有低能源强度、零排放和最小化土地足迹的特点,从而实现负责任的沥青回收。本文阐明了一种创新的清洁能源技术的能力,该技术可以提高阿尔伯塔省阿萨巴斯卡油砂的沥青采收率。这项新技术利用清洁能源,以较低的能油比回收石油,而不是蒸汽注入方法所达到的平均比。
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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