High temperature regenerator design for industrial furnace applications

被引:0
|
作者
Noh, DS [1 ]
Lee, EK [1 ]
Cho, KW [1 ]
机构
[1] Korea Inst Energy Res, Boiler & Furnace Res Team, Taejon 305343, South Korea
关键词
regenerator; heat recovery; furnace; combustion; ceramic honeycomb;
D O I
暂无
中图分类号
O414.1 [热力学];
学科分类号
摘要
An experimental study has been performed to derive design guidelines of regenerator for high temperature air preheating. Cylindrical ceramic honeycombs were used for regenerator because of their larger surface area, lighter weight and lower pressure loss than ceramic balls. Two kinds of material (50% cordierite+50% mullite and 100% cordierite) were used in the fabrication of honeycombs. Experiments were carried out with varying combustion load (23-60kW), air ratio (1.05-1.5), firing time 10-90second), honeycomb cell density (100cell-300cell) and honeycomb regenerator length (100-300mm). Temperature efficiencies were calculated using the temperatures at the inlet and outlet of the regenerator while maintaining the average furnace temperature at 1,200 degreesC. It was shown that the temperature efficiency decreases with increasing firing time and combustion load for a given cell density and length of the regenerator. The decreasing rate was varied depending on the regenerator material. A concept based on the number of passages of exhaust gas through the regenerator was suggested by normalizing the firing time with operating conditions. The variation of temperature efficiency was correlated well with the number of passages introduced in this study. The maximum number of passages for obtaining a temperature efficiency of higher than 90% was 1,000.
引用
收藏
页码:173 / 182
页数:10
相关论文
共 50 条
  • [1] Performance evaluation of industrial glass furnace regenerator
    El-Behery, Samy M.
    Hussien, A. A.
    Kotb, H.
    El-Shafie, Mostafa
    ENERGY, 2017, 119 : 1119 - 1130
  • [2] Design and fabrication of a high-temperature helium regenerator
    Youchison, D. L.
    Garde, J. M.
    FUSION ENGINEERING AND DESIGN, 2012, 87 (5-6) : 764 - 768
  • [3] Optimal design for high performance industrial furnace applied high temperature air combustion technology
    Morita, M
    Tanigawa, T
    KAGAKU KOGAKU RONBUNSHU, 2000, 26 (02) : 227 - 235
  • [4] Energy-Efficient Structure for the Lining of the High-Temperature Regenerator of a Glassmaking Furnace
    Dzyuzer, V. Ya.
    REFRACTORIES AND INDUSTRIAL CERAMICS, 2014, 55 (01) : 1 - 4
  • [5] Energy-Efficient Structure for the Lining of the High-Temperature Regenerator of a Glassmaking Furnace
    V. Ya. Dzyuzer
    Refractories and Industrial Ceramics, 2014, 55 : 1 - 4
  • [6] DESIGN OF HIGH-TEMPERATURE FURNACE PLANTS
    MULLER, A
    NEUE HUTTE, 1991, 36 (08): : 318 - 318
  • [7] DESIGN OF A HIGH-TEMPERATURE RESISTANCE FURNACE
    MCRITCHIE, FH
    AULT, NN
    JOURNAL OF THE AMERICAN CERAMIC SOCIETY, 1950, 33 (01) : 25 - 26
  • [8] Temperature Modelling in an Industrial Furnace
    Muresan, Vlad
    Abrudean, Mihail
    Moga, Daniel
    Unguresan, Mihaela-Ligia
    Clitan, Iulia
    Cordos, Roxana Carmen
    Codoban, Adrian
    Cohut, Mircea
    Abrudan, Marius Rares
    PROCEEDINGS OF 2020 IEEE INTERNATIONAL CONFERENCE ON AUTOMATION, QUALITY AND TESTING, ROBOTICS (AQTR), 2020, : 285 - 290
  • [9] Development of an original design of high temperature -: High pressure furnace
    Quémard, L
    Rebillat, F
    Guette, A
    Tawil, H
    HIGH TEMPERATURE CERAMIC MATRIX COMPOSITES 5, 2005, : 543 - 548
  • [10] Robust nonlinear slab temperature control design for an industrial reheating furnace
    Sibarani, H
    Samyudia, Y
    EUROPEAN SYMPOSIUM ON COMPUTER-AIDED PROCESS ENGINEERING - 14, 2004, 18 : 811 - 816