Analysis of fluid flow through the grinding zone

被引:0
|
作者
Guo, C. [1 ]
Malkin, S. [1 ]
机构
[1] Univ of Massachusetts, Amherst, United States
来源
Journal of engineering for industry | 1992年 / 114卷 / 04期
关键词
Differential equations - Flow of fluids - Grinding wheels - Mathematical models - Porous materials;
D O I
10.1115/1.2900694
中图分类号
学科分类号
摘要
A theoretical model of fluid flow in grinding has been developed by an analysis of fluid flow through a porous medium. Fluid tangential velocity, radial velocity, depth of penetration into the wheel, and the useful flow rate through the grinding zone are predicted by using this model. The analysis indicates that the nozzle position, nozzle velocity (or flow rate), and the effective wheel porosity are the three main factors which most significantly influence the useful flow rate through the grinding zone. A dimensionless effective wheel porosity parameter is introduced which is the ratio of the effective wheel porosity to its bulk porosity. By fitting the theoretical analysis to available experimental results, creep feed wheels were found to have much bigger dimensionless effective porosities than conventional wheels, which enhances their ability to more effectively pump fluid through the grinding zone.
引用
收藏
页码:427 / 434
相关论文
共 50 条
  • [31] Specific Properties of Air Flow Field Within the Grinding Zone
    ZHENG JunyiJIANG ZhengfengZHAO Liang Electromechanical School Wuhan University of Technology Wuhan China
    武汉理工大学学报, 2006, (S1) : 307 - 309
  • [32] Modeling and experimental investigation of the flow velocity field in the grinding zone
    Li, C. (sy_lichanghe@163.com), 1600, Science and Engineering Research Support Society (07):
  • [33] Specific properties of air flow field within the grinding zone
    Zheng Junyi
    Jiang Zhengfeng
    Zhao Liang
    1ST INTERNATIONAL SYMPOSIUM ON DIGITAL MANUFACTURE, VOLS 1-3, 2006, : 307 - 309
  • [34] Numerical Simulation of Hydrodynamic Fluid Pressure in Grinding Zone with Resin-bonded Diamond Grinding Wheel
    Hou, Y. L.
    Li, C. H.
    FUNCTIONAL MANUFACTURING TECHNOLOGIES AND CEEUSRO I, 2010, 426-427 : 668 - +
  • [35] Analysis of Fluid Flow of Liquid Steel through Clogged Nozzles: Thermodynamic Analysis and Flow Simulations
    Gonzalez-Solorzano, Maria Guadalupe
    Morales, Rodolfo Davila
    Gutierrez, Enif
    Guarneros, Javier
    Chattopadhyay, Kinnor
    STEEL RESEARCH INTERNATIONAL, 2020, 91 (11)
  • [36] DESIGN ANALYSIS OF FLUID-FLOW THROUGH PERFORATED PLATES
    Celik, Nevin
    Bayazit, Yilmaz
    Turgut, Emre
    Sparrow, Ephraim M.
    THERMAL SCIENCE, 2018, 22 (06): : 3091 - 3098
  • [37] Numerical analysis of fluid flow through fibrous porous materials
    Aaltosalmi, U
    Kataja, M
    Koponen, A
    Timonen, J
    Goel, A
    Lee, G
    Ramaswamy, S
    JOURNAL OF PULP AND PAPER SCIENCE, 2004, 30 (09): : 251 - 255
  • [38] Thermal analysis of MHD Williamson fluid flow through a microchannel
    Shashikumar, N. S.
    Madhu, Macha
    Sindhu, S.
    Gireesha, B. J.
    Kishan, Naikoti
    INTERNATIONAL COMMUNICATIONS IN HEAT AND MASS TRANSFER, 2021, 127
  • [39] Numerical Analysis of Fluid Flow through Screw Pumps.
    Jankow, Wikor I.
    Bogdanow, Jewgeni D.
    Perwadtschuk, Wladimir
    Reher, Ernst-Otto
    Plaste und Kautschuk, 1984, 31 (01): : 19 - 23
  • [40] Analysis of Stokes flow of micropolar fluid through a porous cylinder
    Maurya, Deepak Kumar
    Deo, Satya
    Khanukaeva, D. Yu
    MATHEMATICAL METHODS IN THE APPLIED SCIENCES, 2021, 44 (08) : 6647 - 6665