Resolving Multiphase Flow through Packed Bed of Solid Particles Using eXtended Discrete Element Method with Porosity Calculation

被引:15
|
作者
Baniasadi, Maryam [1 ]
Peters, Bernhard [1 ]
机构
[1] Univ Luxembourg, Fac Sci Technol & Commun, Campus Belval 2,Ave Univ L-4365, Eschsur Sur Alzette, Luxembourg
关键词
MODELING HYDRODYNAMICS; CFD SIMULATION; MASS-TRANSFER; HIGH-PRESSURE; POROUS-MEDIA; REACTORS; LIQUID; XDEM; DEM; MALDISTRIBUTION;
D O I
10.1021/acs.iecr.7b02903
中图分类号
TQ [化学工业];
学科分类号
0817 ;
摘要
Multiphase flow reactors such as trickle bed reactors are frequently used reactors in many industries. Understanding the fluid dynamics of these kinds of reactors is necessary to design and optimize them. The pressure drop and liquid saturation are the most important hydrodynamic parameters in these reactors, which depend highly on the porosity distribution inside the bed. The eXtended Discrete Element Method (XDEM) was applied as a numerical approach to model multiphase flow through packed beds of solid particles. This method has the ability to be coupled with Computational Fluid Dynamics (CFD) through interphase momentum transfer which makes it suitable for many Eulerian-Lagrangian systems. The XDEM also calculates the porosity distribution along the bed, which not only eliminates the empirical correlations but also makes it possible to investigate the maldistribution of liquid saturation inside the bed. The results for the hydrodynamics parameters were compared with experimental data, and satisfactory agreement was achieved.
引用
收藏
页码:11996 / 12008
页数:13
相关论文
共 39 条
  • [1] Study of flow through a packed bed using discrete element method and computational fluid dynamics
    Mohanty, Rahul
    Mohanty, Swati
    Mishra, B. K.
    JOURNAL OF THE TAIWAN INSTITUTE OF CHEMICAL ENGINEERS, 2016, 63 : 71 - 80
  • [2] Influence of aspect ratio of ellipsoidal particles on mixing in vibrated packed bed using discrete element method
    Khatoon, Salma
    Kumar, Sunil
    Yogi, Jeetram
    Dubey, Praveen
    Anand, Anshu
    AICHE JOURNAL, 2024, 70 (06)
  • [3] Dynamic analysis of blockage behavior of fine particles in a packed bed by discrete element method
    She, Xuefeng
    Liu, Songhao
    Liu, Yanjun
    Zhao, Wenshu
    Wang, Yanjiang
    Zhou, Heng
    IRONMAKING & STEELMAKING, 2021, 48 (07) : 860 - 867
  • [4] The Impact of Discrete Element Method Parameters on Realistic Representation of Spherical Particles in a Packed Bed
    Ghasemi Monfared, Zahra
    Hellstrom, J. Gunnar I.
    Umeki, Kentaro
    PROCESSES, 2024, 12 (01)
  • [5] Analysis of Cohesive Particle Percolation in a Packed Bed Using Discrete Element Method
    Zhou, Heng
    Wu, Shengli
    Kou, Mingyin
    Lu, Zhi-guo
    Zou, Zong-shu
    Shen, Yansong
    ISIJ INTERNATIONAL, 2018, 58 (01) : 43 - 51
  • [6] Investigating the Functions of Particles in Packed Aggregate Blend using a Discrete Element Method
    Miao, Yinghao
    Yu, Weixiao
    Hou, Yue
    Guo, Liyan
    Wang, Linbing
    MATERIALS, 2019, 12 (04)
  • [7] Analysis of Powder Motion in a Packed Bed of Blast Furnace Using the Discrete Element Method
    Kikuchi, Shin
    Kon, Tatsuya
    Ueda, Shigeru
    Natsui, Shungo
    Inoue, Ryo
    Ariyama, Tatsuro
    ISIJ INTERNATIONAL, 2015, 55 (06) : 1313 - 1320
  • [8] Analysis for Packing State of the Packed Bed of Hydrogen Storage Alloy Using Discrete Element Method
    Ono, Yuya
    Otani, Tomohiro
    Okumura, Masahiko
    Hamanishi, Shinji
    Saito, Yasuhiro
    Matsushita, Yohsuke
    Aoki, Hideyuki
    JOURNAL OF THE JAPAN INSTITUTE OF ENERGY, 2020, 99 (04) : 41 - 51
  • [9] Analysis for packing state of the packed bed of hydrogen storage alloy using discrete element method
    Ono Y.
    Otani T.
    Okumura M.
    Hamanishi S.
    Saito Y.
    Matsushita Y.
    Aoki H.
    Nihon Enerugi Gakkaishi/Journal of the Japan Institute of Energy, 2020, 99 (04): : 41 - 51
  • [10] Size segregation of spherical nickel pellets in the surface flow of a packed bed: Experiments and Discrete Element Method simulations
    Moysey, Paul A.
    Baird, Malcolm H. I.
    POWDER TECHNOLOGY, 2009, 196 (03) : 298 - 308