An Interactive Workflow and Data Analytics for Model-Based Production Optimization: A Waterflooding Example

Jianlin Fu, Lauren Libby
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Abstract

Maximization of the yield of existing assets becomes more important than ever as the petroleum companies need to win in any business environment. In this context, model-based optimization technology plays an important role in managing efficiently the subsurface flow and can add significant values by maximizing the potential of reservoirs without a large capital investment. Yet, conventional optimization methods did not sufficiently respect expert knowledge and engineering requirements, which severely undermines their business impact in practice. This paper presents a novel interactive workflow that permits injection of expert knowledge into optimization process and ensures the final optimal solution executable. This workflow is unique because it allows to (i) interact with stakeholders, e.g., production engineers and operators, to capture engineering and economic requirements and constraints, (ii) interact with software to identify, screen, and maximize the opportunity, (iii) interact with reservoir to understand the physics for meaningful solutions, and (iv) interact with candidate solutions for the most rigorous one. Data analytics is used in this interactive workflow, boosting the optimization progress to reach the most trustworthy result. An offshore waterflooding example is used to illustrate the workflow proposed. Results show that the optimal solution generated significantly improves, compared to the existing strategy, the estimated short-term and long-term oil recovery (by more than 2% and 6%, respectively). Moreover, the water production volume is largely reduced. The proposed solution is feasible in engineering (meet engineering requirements and engineers’ judgements and expectations), meaningful in physics, optimal (convergence is guaranteed), robust (multiple uncertainties are considered), stable (immune to potential implementation errors), trustworthy (backed by data analytics), and thus executable in practice.
基于模型的生产优化的交互式工作流和数据分析:一个注水示例
随着石油公司需要在任何商业环境中取胜,现有资产收益的最大化变得比以往任何时候都更加重要。在这种情况下,基于模型的优化技术在有效管理地下流动方面发挥着重要作用,并且可以在不投入大量资金的情况下最大化油藏的潜力,从而增加显著的价值。然而,传统的优化方法没有充分尊重专家知识和工程需求,严重影响了其在实践中的业务影响。本文提出了一种新的交互式工作流程,可以将专家知识注入到优化过程中,并保证最终最优解的可执行性。该工作流程是独一无二的,因为它允许(i)与利益相关者(如生产工程师和操作人员)进行交互,以捕获工程和经济需求和约束;(ii)与软件进行交互,以识别、筛选和最大化机会;(iii)与储层进行交互,以了解有意义的解决方案的物理特性;(iv)与候选解决方案进行交互,以获得最严格的解决方案。在这个交互式工作流程中使用数据分析,促进优化进度,以达到最值得信赖的结果。以海上注水为例,说明了所提出的工作流程。结果表明,与现有策略相比,最优方案显著提高了短期和长期原油采收率(分别超过2%和6%)。此外,水量大大减少。提出的解决方案在工程上可行(满足工程需求和工程师的判断和期望),在物理上有意义,最优(保证收敛),鲁棒(考虑多个不确定性),稳定(不受潜在实现错误的影响),值得信赖(有数据分析支持),因此在实践中可执行。
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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