kaz29Вестник Казахстанско-Британского технического университетаHerald of the Kazakh-British Technical University1998-66882959-8109Казахстанско-Британский Технический Университет10.55452/1998-6688-2024-21-2-324-333kaz29-1278Research ArticleНЕФТЕГАЗОВАЯ ИНЖЕНЕРИЯ И ГЕОЛОГИЯOIL AND GAS ENGINEERING, GEOLOGYДОСТИЖЕНИЯ В ИССЛЕДОВАНИЙ ВЛИЯНИЯ НАНОЧАСТИЦ НА СТАБИЛЬНОСТЬ ПЕНЫRESEARCH PROGRESS ON THE EFFECT OF NANOPARTICLES ON FOAM STABILITYЮныиЖ.JunyiZh.

магистрант

Циндао 266580

Master student

Qingdao 266580

1506074112@qq.comХонгбинЯ.HongbinY.

PhD, ассоциированный профессор

Циндао 266580

PhD, Associate Professor

Qingdao 266580

hongbinyang@upc.edu.cnЮфеиЖ.YufeiZh.

магистр

Тяньцзинь 300459

Master

Tianjin 300459

zhengfei19861014@163.comБинЖ.BinZh.

магистр

Лтд, Дунъин 257092

Master

Ltd, Dongying 257092

atiger08@foxmail.comБоЖ.BoZh.

магистр

Тяньцзинь 300459

Master

Tianjin 300459

1027353472@qq.comХиангЛ.XiangL.

магистр

Тяньцзинь 300459

Master

Tianjin 300459

307187527@qq.comHuazhengW.HuazhengW.

магистрант

Циндао 266580

Master student

Qingdao 266580

914017571@qq.comШкола нефтяной инженерии, Китайский нефтяной университет (Восточный Китай)КитайSchool of Petroleum Engineering, China University of Petroleum (East China)ChinaChina Oilfield Service LimitedКитайChina Oilfield Service LimitedChinaДунъин Жуйфэн Петролеум Технический Девелопмент КоКитайDongying Ruifeng Petroleum Technical Development Co.China202403072024212324333Copyright © Юныи Ж., Хонгбин Я., Юфеи Ж., Бин Ж., Бо Ж., Хианг Л., Huazheng W., 20242024Юныи Ж., Хонгбин Я., Юфеи Ж., Бин Ж., Бо Ж., Хианг Л., Huazheng W.Junyi Z., Hongbin Y., Yufei Z., Bin Z., Bo Z., Xiang L., Huazheng W.Данная работа распространяется под лицензией Creative Commons Attribution 4.0.This work is licensed under a Creative Commons Attribution 4.0 License.https://vestnik.kbtu.edu.kz/jour/article/view/1278

Пена как жидкость с определенной вязкостью широко используется для контроля прорыва газа и уменьшения подвижности газа в нефтяных месторождениях благодаря простому процессу, низкой стоимости и стабильности в воде и показала хорошие результаты. Через исследование литературы и результаты исследований нашей команды за последние годы освещено состояние исследований пены CO2 . На этой основе представлен прогресс исследований влияния наночастиц и внешних условий на стабильность пены. В заключение обсуждается механизм стабилизации пены наночастицами путем представления теории максимальной энергии десорбции, теории максимального капиллярного давления, а также теории взаимодействия между частицами. С постоянным развитием технологии пенного заводнения разнообразие и функциональность пены будут продолжать проявляться, стоимость разработки будет еще больше снижаться, а перспективы ее применения на нефтяных месторождениях будут все более и более широкими.

As a fluid with a certain viscosity, foam is widely used to control gas channeling and reduce gas mobility in oil fields due to its simple process, low cost and stability in water, and has achieved good results. Through literature research and the research results of our team in recent years, the research status of CO2 foam is expounded from the direction of foam structure and foam decay. On this basis, the research progress of the effects of nanoparticles and external conditions on foam stability is introduced. Finally, the mechanism of nanoparticle stabilized foam was discussed by introducing the maximum desorption energy theory, the maximum capillary pressure theory and the interaction theory between particles. With the continuous development of foam flooding technology, the diversity and functionality of foam will continue to show, the development cost will be further reduced, and its application prospects in oil fields will become more and more broad.

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The authors declare that there are no conflicts of interest present.