The Effect of the Conductive Walls of the Melting Tank of an Electric Furnace on the Distribution of Energy Flows

被引：0
|
作者：
N. N. Shustrov
V. G. Puzach
S. A. Bezenkov
机构：
[1] Federal State Budgetary Institution of Science “Joint Institute for High Temperatures of the Russian Academy of Sciences,
[2] ”,undefined
[3] JSC “NPO Stekloplastik,undefined
[4] ” Andreevka,undefined
[5] Solnechnogorsk district,undefined
来源：
Refractories and Industrial Ceramics | 2020年 / 61卷
关键词：
electric glass melting furnace (EGMF); electrical conductivity; electric field lines; modeling; equipotential lines; equigradient lines;
D O I：
暂无
中图分类号：
学科分类号：
摘要：
A method for modeling the electric glass melting process, which allows obtaining information about the commonality of electric and thermal processes occurring in the glass mass inside an electric glass-melting furnace, has been developed. The melting tank of the furnace is made of electrically conductive chromium oxide. The study was performed by way of modeling using an EHDA integrator, which resulted in the construction of two versions of pilot electric furnaces with different orientation of the electric field lines and a pilot-commercial furnace capable of melting 7 t/day of E-glass, widely used in the fiberglass manufacturing.
引用
收藏
页码：144 / 149
页数：5
相关论文
共 50 条
  • [1] The Effect of the Conductive Walls of the Melting Tank of an Electric Furnace on the Distribution of Energy Flows
    Shustrov, N. N.
    Puzach, V. G.
    Bezenkov, S. A.
    REFRACTORIES AND INDUSTRIAL CERAMICS, 2020, 61 (02) : 144 - 149
  • [2] INTENSIFYING THE COOLING OF THE WALLS OF THE MELTING TANK OF A GLASS-MELTING TANK FURNACE
    POPOV, ON
    FRIDKIN, RZ
    MAMEDOV, ZT
    GLASS AND CERAMICS, 1983, 40 (5-6) : 222 - 226
  • [3] PREPARATION OF THE MELTING TANK FOR MELTING MAGNESITE IN AN ELECTRIC-ARC FURNACE
    SKORODUMOV, VV
    STOROZHEV, YI
    MECHEV, VV
    VLASOV, NM
    ZHILIN, GP
    REFRACTORIES, 1985, 26 (9-10): : 551 - 553
  • [4] Dependence of melting conditions in electric glass tank on distribution of released energy
    Lisy, A
    GLASS SCIENCE AND TECHNOLOGY-GLASTECHNISCHE BERICHTE, 2000, 73 : 99 - 108
  • [5] ENERGY PERFORMANCE OF ELECTRIC FURNACE WHEN MELTING STAINLESS STEEL
    SMOLYARENKO, VD
    KUZNETSO.LN
    NIKOLSKI.LE
    STAL IN ENGLISH-USSR, 1969, (04): : 388 - +
  • [6] Holistic control of energy and material flows of the electric arc furnace
    Dorndorf, M.
    Kempken, J.
    Krueger, K.
    Monheim, P.
    Uebber, N.
    Shubert, M.
    ARCHIVES OF METALLURGY AND MATERIALS, 2008, 53 (02) : 439 - 450
  • [7] DISTRIBUTION OF POWER IN A 3-PHASE, ELECTRIC FURNACE IN THE MELTING OF PERICLASE
    SIVASH, VG
    SERGIENKO, PN
    VOROBEV, VP
    SIVTSOV, AV
    REFRACTORIES, 1984, 25 (9-10): : 528 - 533
  • [8] Energy-cost flows model of electric energy distribution at an electric network
    Pazderin, A. A.
    Pazderin, A. V.
    Firsova, D. A.
    2017 11TH IEEE INTERNATIONAL CONFERENCE ON COMPATIBILITY, POWER ELECTRONICS AND POWER ENGINEERING (CPE-POWERENG), 2017, : 308 - 312
  • [9] Effect of coherent jet burner on scrap melting in electric arc furnace
    Chen, Yuchao
    Luo, Qingxuan
    Ryan, Steve
    Busa, Neel
    Silaen, Armin K.
    Zhou, Chenn Q.
    APPLIED THERMAL ENGINEERING, 2022, 212
  • [10] Analyses and Determination of Current Density and Energy Density in Electric Melting Glass Furnace
    Ning Wei
    Luo Lida
    Xu Xingyang
    Wang Qingwei
    Chen Jian
    APPLICATIONS OF ENGINEERING MATERIALS, PTS 1-4, 2011, 287-290 : 2945 - +
12345