Large-volume oil/gas fired hot water atmospheric boiler and its hot water supply system

被引:0
|
作者
Kou, GX [1 ]
Gu, WL [1 ]
Wang, XL [1 ]
机构
[1] Nanhua Univ, Hengyang 421001, Hunan, Peoples R China
关键词
D O I
暂无
中图分类号
TU [建筑科学];
学科分类号
0813 ;
摘要
Based on the situation that thermal insulation hot water tank and oil/gas fired hot-water atmospheric boiler keeps pressure-less, and oil/gas fired hot water atmospheric boiler is often installed on the roof disposing corresponding thermal insulation hot water tank, this paper proposes a kind of heat source device large-volume oil/gas fired hot water atmospheric boiler which is especially suitable for hot water supply system with the boiler installed on the roof. The water volume of this kind of boiler is equivalent to the thermal insulation hot water tank, and can be used for hot water supply without thermal insulation hot water tank cold-water pump and circulation pipes. Besides, compared with the hot water supply system using common hot water boiler, hot water supply system using large-volume oil/gas fired hot water atmospheric boiler has such advantages as small area of land, low cost for installation, simple system, easy operation, high utilization of heat source, low operation consumption. Large-volume oil/gas fired hot water atmospheric boiler can be used widely in hot water supply system with boiler installed on the roof to replace the traditional hot water supply system using "oil/gas fired hot water atmospheric boiler +hot water tank +circulation pump", and obtain obvious economic benefit and environment benefit. It is worth pointing out that this kind of boiler can be used not only in sanitary hot water supply but also in heating and air-conditioning system.
引用
收藏
页码:1479 / 1482
页数:4
相关论文
共 50 条
  • [1] Design of the hot water heating system with an atmospheric pressure boiler
    Gao, Dongming
    [J]. Nuantong Kongtiao/HV and AC, 2003, 33 (06):
  • [2] Study on thermal efficiency of gas-fired vacuum hot water boiler
    Zhang, Zhihong
    Ma, Lishan
    Yang, Guichun
    Yu, Yuanting
    [J]. FIRST INTERNATIONAL CONFERENCE ON BUILDING ENERGY AND ENVIRONMENT, PROCEEDINGS VOLS 1-3, 2008, : 1385 - 1388
  • [3] APPLICATION OF ENERGY AND EXERGY ANALYSIS TO INCREASE EFFICIENCY OF A HOT WATER GAS FIRED BOILER
    Todorovic, Milena N.
    Zivkovic, Dragoljub S.
    Mancic, Marko V.
    Ilic, Gradimir S.
    [J]. CHEMICAL INDUSTRY & CHEMICAL ENGINEERING QUARTERLY, 2014, 20 (04) : 511 - 521
  • [4] Development of a neural network based control system for a stoker fired hot water boiler
    Thai, S. M.
    Wilcox, S. J.
    Chong, A. Z. S.
    Ward, J.
    [J]. JOURNAL OF THE ENERGY INSTITUTE, 2007, 80 (03) : 153 - 161
  • [5] WAYS OF IMPROVING GAS-FIRED AND OIL-FIRED HIGH-CAPACITY HOT WATER BOILERS
    ZAKRIVIDOROGA, VN
    MOISEENKO, PP
    KOKEREVA, LR
    GULYAEV, MN
    LISEIKIN, ID
    [J]. THERMAL ENGINEERING, 1983, 30 (08) : 452 - 455
  • [6] RECONSTRUCTION OF 50 MW OIL-FIRED HOT-WATER BOILER FOR FIRING WITH DOMESTIC FUEL.
    Johnsson, Ulf
    [J]. Fernwarme international, 1981, 10 (04): : 203 - 205
  • [7] Urban renovation of the hot water supply system
    Taraday, Oleksandr
    Gvozdetskiy, Oleksandr
    Fomich, Sergii
    [J]. 6TH INTERNATIONAL SCIENTIFIC CONFERENCE RELIABILITY AND DURABILITY OF RAILWAY TRANSPORT ENGINEERING STRUCTURES AND BUILDINGS (TRANSBUD-2017), 2017, 116
  • [8] Energetic and Environmental Performances of a Domestic Hot Water Condensing Boiler Fired by Wood Pellets
    Ngendakumana, Philippe
    Gabriele, Fabian
    Restivo, Yannick
    Sartor, Kevin
    [J]. INFUB - 11TH EUROPEAN CONFERENCE ON INDUSTRIAL FURNACES AND BOILERS (INFUB-11), 2017, 120 : 270 - 277
  • [9] Seismic Signature of an Untuned Large-Volume Airgun Array Fired in a Water Reservoir
    Wang, Baoshan
    Tian, Xiaofeng
    Zhang, Yunpeng
    Li, Yulan
    Yang, Wei
    Zhang, Bo
    Wang, Weitao
    Yang, Jun
    Li, Xiaobin
    [J]. SEISMOLOGICAL RESEARCH LETTERS, 2018, 89 (03) : 983 - 991
  • [10] THE QUESTION OF CHOOSING A WATER-HEATING BOILER FOR GAS OIL-FIRED BOILER PLANTS
    DULENIN, VP
    [J]. THERMAL ENGINEERING, 1991, 38 (10) : 571 - 572