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The ABCs of In-Situ Combustion Simulations:From Laboratory Experiments to the Field Scale

机译:原位燃烧模拟的ABC:从实验室实验到现场规模

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Air-injection-based recovery processes are receiving increased interest due to their high recovery potentials and applicability to a wide range of reservoirs.However,most operators require a certain level of confidence in the potential recovery from these(or any)processes prior to committing resources,which can be achieved with the use of numerical reservoir simulation.In a previous paper(JCPT,April 2009,pp.23-34)it was proposed that,after successful laboratory testing,analytical calculations and semi-quantitative simulation models would be used for pilot design and further optimization of the actual operation.However,the specific steps for building the field-scale simulation models were not explicitly addressed.This paper discusses a detailed workflow which could be followed to engineer an air injection project using thermal reservoir simulation.The first step of the simulation study involves the selection of a kinetic model which could be either developed specifically for the reservoir in question or taken from public literature.Second,the oil would be characterized in terms of the same pseudo-components employed by the kinetic model and relevant PVT data would be matched to develop a fluid model for the thermal simulator.This new fluid model is used in the field-scale simulation model to history match the production history(i.e.prior to air injection)of the field.Third,relevant combustion tube tests would be history matched to validate the kinetic model and refine the thermal data that would go into the field-scale model.Finally,the results and knowledge gained from the combustion tube match(es)are applied to the field-scale model with the proper upscaling of some parameters.This simulation model would aid in selecting optimum well locations and operating strategies of the pilot.It would then be refined as the actual operation progresses to enhance its predictability and allow further optimization of the project.Technical considerations,advantages,and limitations of each step of the workflow are discussed in detail.This paper also presents workflow variations and recommendations applicable to new and already mature air injection projects for which simulation models are being developed.
机译:由于其高恢复潜力和适用于各种水库,基于空气喷射的恢复过程正在接受增加的利益。但是,大多数运营商在提交之前,大多数运营商需要一定的置信度恢复这些(或任何)流程可以通过使用数值水库模拟可以实现的资源。在上一篇论文(JCPT,2009年4月,第23-34页)中,提出了在成功的实验室测试,分析计算和半定量模拟模型之后用于试点设计和进一步优化实际操作。然而,没有明确寻求建立现场仿真模型的具体步骤。本文讨论了一个详细的工作流程,可以遵循使用热储存器模拟的空气喷射项目。 。仿真研究的第一步涉及选择可以专门为储层开发的动力学模型IR有问题或从公共文献中获取。二十,石油的特征在于动力学模型采用的相同伪组分,并且相关的PVT数据将匹配,以开发热模拟器的流体模型。这是一种新的流体模型用于历史的现场仿真模型与现场的生产历史(IEPRIOR到空气喷射)匹配。第三,相关的燃烧管测试将是验证动力学模型的历史,并优化将进入的热数据域级模型。最后,从燃烧管匹配中获得的结果和知识应用于某些参数的适当升级的现场级模型。这模拟模型将有助于选择最佳井位置和操作策略试点。然后将改成实际运作的进展,以提高其可预测性并进一步优化项目。技术考虑,优势和局限性详细讨论了工作流程的每个步骤。本文还介绍了适用于新的和已经成熟的空气喷射项目的工作流程变化和建议,用于开发模拟模型。

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