Internal Components Optimization in Cyclone Separators: Systematic Classification and Meta-analysis

Z. Gao, Yaodong Wei, Zhongxin Liu, Chun-Xiao Jia, Juan Wang, J. Wang, Y. Mao
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引用次数: 17

Abstract

ABSTRACT Current studies on improving the separation performance of cyclone separators focus on five aspects: i] geometry-structure optimization, ii] geometry-parameter optimization, iii] operation-parameter optimization, iv] operating-condition optimization, and v] internal component optimization. Many scholars work on the design and use of internal components in a cyclone separator to solve various industrial problems, but they seldom systematically classify these internal components. In the last 1999–2019 years, reports on such classification were relatively rare. Compared to the other four aspects, the internal components optimization has a unique advantage: when the equipment operation fails, there is no need to replace the original equipment, just the defective component, which greatly saves both maintenance and engineering expenses. In this review, several kinds of internal cyclone components are systematically summarized and classified, including their mechanism and usage effect. Furthermore, the trends in internal component development have also been prospected. Combined applications, development of new components and applications of new materials are the three main trends. In the future, internal components will be more diversified, detailed, precise and simplified. Finally, we expect that these developments will not only improve the separation efficiency and reduce the pressure drop but also satisfy requirements in environmental protection and process security.
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旋风分离器内部元件优化:系统分类与元分析
目前关于提高旋风分离器分离性能的研究主要集中在5个方面:i]几何结构优化、ii]几何参数优化、iii]运行参数优化、iv]工况优化、v]内构件优化。许多学者致力于旋风分离器内部元件的设计和使用,以解决各种工业问题,但很少对这些内部元件进行系统的分类。在过去的1999-2019年,关于这种分类的报道相对较少。与其他四个方面相比,内部元件优化有一个独特的优势:当设备运行出现故障时,不需要更换原有设备,只需更换有缺陷的元件,大大节省了维护和工程费用。本文对几种内旋流器组件进行了系统的总结和分类,包括它们的作用机理和使用效果。展望了内部元件的发展趋势。复合应用、新部件的开发和新材料的应用是三大趋势。未来,内部组件将更加多样化、精细化、精准化、简化化。最后,我们期望这些发展不仅可以提高分离效率,降低压降,还可以满足环境保护和过程安全的要求。
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