Influence of taper angle on the inner field and separation performance of a hydrocyclone

被引:0
|
作者
Wu, Zaihai [1 ,2 ]
Qi, Zhaojun [1 ]
Yu, Lu [3 ]
Kou, Yunpeng [1 ,2 ]
Luan, Liming [1 ,2 ]
Yang, Jiguang [1 ]
Jia, Haibo [1 ]
Zhu, Gengjie [1 ]
Wang, Zengjia [1 ]
Li, Guangbo [1 ]
Sheng, Yuhang [1 ]
机构
[1] Shandong Gold Min Co Ltd, Backfill Engn Lab, Yantai, Shandong, Peoples R China
[2] Univ Sci & Technol Beijing, Sch Civil & Resource Engn, Beijing, Peoples R China
[3] Zhaoyuan 2 Middle Sch, Beijing, Peoples R China
关键词
Taper angle; separation performance; separation precision; hydrocyclone; SIMULATION; FLOW; CFD;
D O I
10.1080/19392699.2022.2064453
中图分类号
TE [石油、天然气工业]; TK [能源与动力工程];
学科分类号
0807 ; 0820 ;
摘要
Taper angle is an important factor for characterizing a hyrocyclone's separation performance. Appropriate setting of the taper angle can contribute to particle grading and separation performance of the hydrocyclone. Through numerical analysis, this study investigated the flow fields and separation performances of the hydrocyclones with different taper angles in depth. Moreover, the numerical simulation results were compared with experimental data of the conventional hydrocyclone for accuracy validation. The results showed that the tangential velocity, axial velocity, and the diameter of air core increased with the increasing taper angle. At a too large or a too small taper angle, the inner flow field would become unstable, thereby leading to the increasing number of dislocated particles and reducing the particle separation precision. For the hydrocyclone with a diameter of 75 mm, the separation precision of fine particles can be remarkably enhanced by setting the taper angle of 15 degrees, accompanied with the improvement of product quality. The present data can provide the related enterprises with favorable guidance and a theoretical foundation for further designing the taper angle of novel hydrocyclones.
引用
收藏
页码:560 / 576
页数:17
相关论文
共 50 条
  • [41] Experimental research on the separation performance of W-shaped hydrocyclone
    Jiang, Lanyue
    Liu, Peikun
    Yang, Xinghua
    Zhang, Yuekan
    Li, Xiaoyu
    Zhang, Yulong
    Wang, Hui
    POWDER TECHNOLOGY, 2020, 372 : 532 - 541
  • [42] Vortex finder diameter and depth effects on the separation performance of hydrocyclone
    Zhang, Yuekan
    Xu, Mingyuan
    Hu, Wei
    Xu, Xiangxi
    Zhang, Qingyun
    CHEMICAL ENGINEERING RESEARCH & DESIGN, 2023, 195 : 181 - 191
  • [43] CFD ANALYSIS OF PERFORMANCE OF HYDROCYCLONE FOR SMS ORE SEPARATION ON SEAFLOOR
    Yamazaki, Tetsuo
    Takeda, Yosuke
    Arai, Rei
    Nakatani, Naoki
    PROCEEDINGS OF THE ASME 36TH INTERNATIONAL CONFERENCE ON OCEAN, OFFSHORE AND ARCTIC ENGINEERING, 2017, VOL 6, 2017,
  • [44] Improvement of hydrocyclone separation performance by incorporating a conical filtering wall
    Vieira, Luiz G. M.
    Damasceno, Joao J. R.
    Barrozo, Marcos A. S.
    CHEMICAL ENGINEERING AND PROCESSING-PROCESS INTENSIFICATION, 2010, 49 (05) : 460 - 467
  • [45] Separation Performance of a Novel Liquid-Liquid Dynamic Hydrocyclone
    Huang, Long
    Deng, Songsheng
    Guan, Jinfa
    Hua, Weixing
    Chen, Ming
    INDUSTRIAL & ENGINEERING CHEMISTRY RESEARCH, 2018, 57 (22) : 7613 - 7623
  • [46] Experimental study of the separation performance of a hydrocyclone with a compound curve cone
    Jiang, Lanyue
    Liu, Peikun
    Zhang, Yuekan
    Li, Xiaoyu
    Yang, Xinghua
    Xu, Huilin
    Wang, Hui
    POWDER TECHNOLOGY, 2022, 409
  • [47] Experimental study of the separation performance of a hydrocyclone with a compound curve cone
    Jiang, Lanyue
    Liu, Peikun
    Zhang, Yuekan
    Li, Xiaoyu
    Yang, Xinghua
    Xu, Huilin
    Wang, Hui
    Powder Technology, 2022, 409
  • [48] Numerical investigation of hydrocyclone inlet configurations for improving separation performance
    Dianyu, E.
    Xu, Guangtai
    Fan, Haihan
    Cui, Jiaxin
    Tan, Cong
    Zhang, Yuhao
    Zou, Ruiping
    Kuang, Shibo
    Yu, Aibing
    POWDER TECHNOLOGY, 2024, 434
  • [50] PERFORMANCE OF A LARGE-CONE-ANGLE HYDROCYCLONE .1. HYDRODYNAMICS
    VANDUIJN, G
    RIETEMA, K
    CHEMICAL ENGINEERING SCIENCE, 1983, 38 (10) : 1651 - 1661