Agile Scalable Distributed Polymer Injection Achieves 23% of Manantiales Behr Oil Production 2 Years; Worldwide Examples of this Game Changer Strategy

J. Juri, G. Dupuis, G. Pedersen, A. Ruiz, V. Serrano, P. Guillen, F. Schein, I. Ylitch, N. Ojeda, S. Gandi, L. Martino, A. Lucero, D. Perez, G. Vocaturo, C. Rivas, J. Massaferro
{"title":"Agile Scalable Distributed Polymer Injection Achieves 23% of Manantiales Behr Oil Production 2 Years; Worldwide Examples of this Game Changer Strategy","authors":"J. Juri, G. Dupuis, G. Pedersen, A. Ruiz, V. Serrano, P. Guillen, F. Schein, I. Ylitch, N. Ojeda, S. Gandi, L. Martino, A. Lucero, D. Perez, G. Vocaturo, C. Rivas, J. Massaferro","doi":"10.2118/209364-ms","DOIUrl":null,"url":null,"abstract":"\n Implementing a polymer flooding plan from laboratory studies to expansion and optimization takes around 8 to 12 years. What is the best approach to increase the project return on investment (ROI) and reduce the risk? EOR is facing, more than ever before, the importance and impact of timing. The oil demand is under rapid replacement because the energy transition is being accelerated by the pandemic.\n We built our strategy around a distributed polymer injection rather than a centralized infrastructure to massively inject polymer at full-field scale. The distributed polymer injection with modular mobile polymer injection units (PIUs) targets the richest zones/sweet- spots of by-passed oil. In this case, the logistics, the construction of small modular mobile polymer injection units along with a cluster of ten injectors and nineteen to twenty-five producers ensure that the development cost will be below $5/bbl. The distributed polymer injection not only is efficient in kg of polymer per incremental barrel but also rationalizes OPEX. Progressing this scenario is simple and depends mainly on the engineering and construction to move and mount rapidly the PIU from one sweet-spots to the next one.\n Our development strategy focused on speed over scale: less use of water, less footprint, less infrastructure, optimize OPEX (polymer is being consumed along four to seven years, there is scope to optimize along the project lifetime) on the contrary infrastructure an upfront cost (there is less scope to optimize in the project lifetime). We prioritize small/mobile facilities knowing the specific location of the best reservoir targets in the subsurface to inject polymer. This offered the opportunity to standardize engineering and materials for mounting the modules, and it provides a way to focusing on one type of infrastructure to optimize.\n Grimbeek Field, case study shows how we have increased the return of investment by identifying the sweet-spots of by-passed oil using reservoir simulation. In each of the main sweet-spots, we installed a modular mobile polymer injection unit. Reservoir simulation shows that only 38% of the reservoir affected by polymer injection produces more than 60% of the incremental oil.\n Grimbeek Field produced 4100 BOPD in 2019. Development of sweet-spots by modular polymer injection has driven the production of over 9700 BOPD incrementing production in more than 100% (more than 5000 BOPD) which now represents 23% of Manantiales Behr total production in less than two years including 2020. In the next 10 months, the project will have delivered 60% of the total cumulative production rationalizing the operative expenditure.\n This strategy is a game-changer in polymer flooding, not only because other companies worldwide are adopting the distributed polymer injection concept but also because companies that initially adopted centralized infrastructure to massively inject polymer are now abandoning this concept and shifting towards distributed polymer injection. This strategy can be implemented efficiently in many mature fields since it will improve efficiency and speed across the whole value chain: 1)construct a small polymer injection units off-site, 2) mount on-site a modular installation, 3) inject polymer in relatively short injection cycles (3 to 4 years rational increase in OPEX) and 4)focus cluster production and move the PIU to the next zone.","PeriodicalId":10935,"journal":{"name":"Day 1 Mon, April 25, 2022","volume":"24 1","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2022-04-18","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"1","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"Day 1 Mon, April 25, 2022","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.2118/209364-ms","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 1

Abstract

Implementing a polymer flooding plan from laboratory studies to expansion and optimization takes around 8 to 12 years. What is the best approach to increase the project return on investment (ROI) and reduce the risk? EOR is facing, more than ever before, the importance and impact of timing. The oil demand is under rapid replacement because the energy transition is being accelerated by the pandemic. We built our strategy around a distributed polymer injection rather than a centralized infrastructure to massively inject polymer at full-field scale. The distributed polymer injection with modular mobile polymer injection units (PIUs) targets the richest zones/sweet- spots of by-passed oil. In this case, the logistics, the construction of small modular mobile polymer injection units along with a cluster of ten injectors and nineteen to twenty-five producers ensure that the development cost will be below $5/bbl. The distributed polymer injection not only is efficient in kg of polymer per incremental barrel but also rationalizes OPEX. Progressing this scenario is simple and depends mainly on the engineering and construction to move and mount rapidly the PIU from one sweet-spots to the next one. Our development strategy focused on speed over scale: less use of water, less footprint, less infrastructure, optimize OPEX (polymer is being consumed along four to seven years, there is scope to optimize along the project lifetime) on the contrary infrastructure an upfront cost (there is less scope to optimize in the project lifetime). We prioritize small/mobile facilities knowing the specific location of the best reservoir targets in the subsurface to inject polymer. This offered the opportunity to standardize engineering and materials for mounting the modules, and it provides a way to focusing on one type of infrastructure to optimize. Grimbeek Field, case study shows how we have increased the return of investment by identifying the sweet-spots of by-passed oil using reservoir simulation. In each of the main sweet-spots, we installed a modular mobile polymer injection unit. Reservoir simulation shows that only 38% of the reservoir affected by polymer injection produces more than 60% of the incremental oil. Grimbeek Field produced 4100 BOPD in 2019. Development of sweet-spots by modular polymer injection has driven the production of over 9700 BOPD incrementing production in more than 100% (more than 5000 BOPD) which now represents 23% of Manantiales Behr total production in less than two years including 2020. In the next 10 months, the project will have delivered 60% of the total cumulative production rationalizing the operative expenditure. This strategy is a game-changer in polymer flooding, not only because other companies worldwide are adopting the distributed polymer injection concept but also because companies that initially adopted centralized infrastructure to massively inject polymer are now abandoning this concept and shifting towards distributed polymer injection. This strategy can be implemented efficiently in many mature fields since it will improve efficiency and speed across the whole value chain: 1)construct a small polymer injection units off-site, 2) mount on-site a modular installation, 3) inject polymer in relatively short injection cycles (3 to 4 years rational increase in OPEX) and 4)focus cluster production and move the PIU to the next zone.
敏捷可扩展分布式聚合物注入实现Manantiales Behr油田23%的增产世界范围内改变游戏规则的例子
从实验室研究到扩展和优化,实施聚合物驱计划需要8到12年的时间。提高项目投资回报率(ROI)和降低风险的最佳方法是什么?提高采收率比以往任何时候都更加面临时机的重要性和影响。由于新冠肺炎疫情加速了能源转型,石油需求正在迅速替代。我们的策略是围绕分布式聚合物注入,而不是集中的基础设施,在整个油田大规模注入聚合物。采用模块化移动聚合物注入单元(piu)的分布式聚合物注入技术瞄准了旁通油最富集的区域/甜点。在这种情况下,物流、小型模块化移动聚合物注入单元的建设以及10个注入器和19到25个生产商的集群确保了开发成本低于5美元/桶。分散式聚合物注入不仅提高了每桶增量聚合物千克的效率,而且使运营成本合理化。实现这一方案很简单,主要取决于工程和施工将PIU从一个最佳位置快速移动和安装到下一个最佳位置。我们的发展战略侧重于速度而不是规模:更少的水使用,更少的足迹,更少的基础设施,优化OPEX(聚合物的消耗时间为4到7年,在项目生命周期内有优化的余地),相反,基础设施和前期成本(在项目生命周期内优化的余地较小)。我们优先考虑小型/移动设施,了解地下最佳储层目标的具体位置,以注入聚合物。这为标准化安装模块的工程和材料提供了机会,并提供了一种专注于优化一种基础设施的方法。Grimbeek油田的案例研究表明,通过油藏模拟来识别旁道油的甜点,我们提高了投资回报。在每个主要的甜蜜点,我们安装了一个模块化的移动聚合物注射单元。油藏模拟表明,只有38%受聚合物注入影响的油藏产出了超过60%的增量油。Grimbeek油田2019年的产量为4100桶/天。通过模块化聚合物注入的甜点开发,推动了超过9700桶/天的产量增长超过100%(超过5000桶/天),在包括2020年在内的不到两年的时间里,这占Manantiales Behr总产量的23%。在接下来的10个月里,该项目将实现累计产量的60%,使运营支出合理化。这种策略改变了聚合物驱的游戏规则,不仅因为全球其他公司正在采用分布式聚合物注入概念,而且因为最初采用集中式基础设施大规模注入聚合物的公司现在正在放弃这一概念,转向分布式聚合物注入。该策略可以在许多成熟油田中有效实施,因为它可以提高整个价值链的效率和速度:1)在现场建造小型聚合物注入装置,2)在现场安装模块化装置,3)在相对较短的注入周期内注入聚合物(3至4年合理增加OPEX), 4)集中集群生产并将PIU移动到下一个区域。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
求助全文
约1分钟内获得全文 求助全文
来源期刊
自引率
0.00%
发文量
0
×
引用
GB/T 7714-2015
复制
MLA
复制
APA
复制
导出至
BibTeX EndNote RefMan NoteFirst NoteExpress
×
提示
您的信息不完整,为了账户安全,请先补充。
现在去补充
×
提示
您因"违规操作"
具体请查看互助需知
我知道了
×
提示
确定
请完成安全验证×
copy
已复制链接
快去分享给好友吧!
我知道了
右上角分享
点击右上角分享
0
联系我们:info@booksci.cn Book学术提供免费学术资源搜索服务,方便国内外学者检索中英文文献。致力于提供最便捷和优质的服务体验。 Copyright © 2023 布克学术 All rights reserved.
京ICP备2023020795号-1
ghs 京公网安备 11010802042870号
Book学术文献互助
Book学术文献互助群
群 号:481959085
Book学术官方微信