GAS CONTENT AND HEIGHT OF TWO-PHASE LAYER ON BUBBLE TRAYS.

被引:0
|
作者
Sum-Shik, L.E.
机构
来源
关键词
GASES - HYDRAULICS - MATHEMATICAL TECHNIQUES;
D O I
暂无
中图分类号
学科分类号
摘要
This paper is concerned with the hydraulic calculation of chemical equipment with bubble trays (distillation columns, absorbers, rectificators, etc) with particular attention to the determination of such parameters as the gas content phi and the height of the bubbled layer H//b. An analysis of the data available in the literature indicates that the equations used in determining phi and H//b do not take into account such a highly important parameter as liquid circulation. This paper presents a derivation of equations for the determination of the average gas content phi and H//b, based on the assumption that a) the bubbled layer is a pseudocontinuous medium; i. e. , the values of the parameters, averaged through each section, vary in a sufficiently continuous manner. Further, the use is made of a theorem from general mechanics as to the momentum with the assumption that the velocity distribution for liquid and gas particles in the bubbled layer occurs in such a manner that the change in momentum of these particles, which is equal to the resultant of all external forces N applied to their mass, tends toward a minimum. Characteristics of apparatus and gas/liquid systems used in obtaining experimental parameters are tabulated.
引用
收藏
页码:134 / 138
相关论文
共 50 条
  • [1] Comparison of monophase and two-phase addition silicone impressions in stock trays.
    Dunne, SM
    Millar, BJ
    JOURNAL OF DENTAL RESEARCH, 1999, 78 (05) : 1073 - 1073
  • [2] Determining the gas content of the liquid on bubble trays
    Trushin, A. M.
    Dmitriev, E. A.
    Akimov, V. V.
    THEORETICAL FOUNDATIONS OF CHEMICAL ENGINEERING, 2008, 42 (03) : 264 - 270
  • [3] Determining the gas content of the liquid on bubble trays
    A. M. Trushin
    E. A. Dmitriev
    V. V. Akimov
    Theoretical Foundations of Chemical Engineering, 2008, 42 : 264 - 270
  • [4] Evaluation of Maximum Gas Content in Two-phase Gas/Liquid Flows with a Bubble Structure.
    Ioshpe, M.N.
    Kornilov, G.G.
    Izvestia vyssih ucebnyh zavedenij. Neft i gaz, 1981, (07): : 50 - 54
  • [5] Two-Phase Boundary Layer of Gas with Solid Particles
    Varaksin, A. Yu
    HIGH TEMPERATURE, 2020, 58 (05) : 716 - 732
  • [6] Two-Phase Boundary Layer of Gas with Solid Particles
    A. Yu. Varaksin
    High Temperature, 2020, 58 : 716 - 732
  • [7] Analytical solution of gas bubble dynamics between two-phase flow
    Mohammadein, S. A.
    Shalaby, G. A.
    Abu-Bakr, A. F.
    Abu-Nab, A. K.
    RESULTS IN PHYSICS, 2017, 7 : 2396 - 2403
  • [8] Gas Holdup Distribution of Gas Bubble Dispersed Phase in Gas-Liquid Two-Phase Jet Absorber
    Uchiyama, Hiroki
    Ishikura, Toshifumi
    Ide, Mitsuharu
    JOURNAL OF CHEMICAL ENGINEERING OF JAPAN, 2008, 41 (07) : 533 - 539
  • [9] A Bubble Formation in the Two-Phase System
    Frana, Karel
    Attia, Shehab
    Stiller, Joerg
    COMPUTATIONAL SCIENCE - ICCS 2019, PT IV, 2019, 11539 : 580 - 586
  • [10] Two-phase bubble flow characterization
    Azamatov, M. A.
    Azamatov, A. Sh.
    GEORESURSY, 2010, 33 (01) : 4 - 6