USING RADIANT HEATING SYSTEM TO PREVENT BRIDGE FREEZING

被引:0
|
作者
Abaza, Hussein [1 ]
Shenawa, Amaal [1 ]
Semmelink, Scott [1 ]
机构
[1] Kennesaw State Univ, Marietta, GA 30060 USA
关键词
Bridge Freezing; Radiant heating;
D O I
暂无
中图分类号
O414.1 [热力学];
学科分类号
摘要
Bridge freezing before roads is a major concern in cold climates as it is a major cause for road accidents. Several active systems were made to prevent bridge surface freezing. These systems include several automated and complex systems such as automatic anti-freeze spray, using phase change materials in the concrete bridge's deck, and imbedding heating system in bridge's decks. These systems are usually expensive to run and operate and some of these systems have negative impact on the environment. This research investigates using radiant heaters for maintaining the concrete temperature within the required limits. Several passive and active methods are used to maintain concrete temperature above the that of the adjacent road. Radiant heaters provide direct, instantaneous, and uniform heating to the bridge surface. The Infrared radiant heating method was tested using an environmental control chamber. Two concrete samples were placed in the climate chamber that simulates cold weather. Thermocouples were used to record the surface temperature, the middle of the concrete samples' temperature and the bottom of the samples' temperature. Infrared camera was also used to measure and verify the concrete surface temperatures. The data analysis showed that concrete surface temperature dropped quickly and become significantly lower than the ambient temperature in the absence of solar radiation. However, introducing radiant heating brings the concrete surface temperature and the core temperature of the concrete samples to the required temperature in a short period of time. A comparison between this research results and other research that investigated the performance of other freezing prevention methods showed that using radiant heating to prevent bridge freezing is effective, economical, and can be applied to existing bridges.
引用
收藏
页数:6
相关论文
共 50 条
  • [41] Solar Energy Utilization of a Residential Radiant Floor Heating System
    Haddad, Kamel
    ASHRAE: TRANSACTIONS 2011, VOL 117, PT 1, 2011, 117 : 79 - 86
  • [42] Numerical simulation of the influencing factors of radiant floor heating system
    Chen P.
    Xu Z.
    Yang J.
    Zou G.
    Advanced Control for Applications: Engineering and Industrial Systems, 2024, 6 (02):
  • [43] Intelligent Radiant Floor Heating Regulation System With Wireless Sensors
    Kerndl, Michal
    Steffan, Pavel
    2017 40TH INTERNATIONAL CONFERENCE ON TELECOMMUNICATIONS AND SIGNAL PROCESSING (TSP), 2017, : 56 - 59
  • [44] HEATING FOUNDRY ECONOMICALLY - AIR HEATED RADIANT TUBE SYSTEM
    不详
    METALLURGIA, 1967, 75 (452): : 248 - &
  • [45] Experimental and numerical analysis of lightweight radiant floor heating system
    Zhang, Dongliang
    Cai, Ning
    Wang, Zijie
    ENERGY AND BUILDINGS, 2013, 61 : 260 - 266
  • [46] Study on the Application of Ceiling Radiant Heating System of Capillary Tube
    Fu, Yunzhun
    Li, Jing
    Wang, Yeyu
    ICEET: 2009 INTERNATIONAL CONFERENCE ON ENERGY AND ENVIRONMENT TECHNOLOGY, VOL 1, PROCEEDINGS, 2009, : 357 - 360
  • [47] Experimental study on dry model radiant floor heating system
    Zhang, Dongliang
    Wang, Zijie
    Zhang, Xu
    Taiyangneng Xuebao/Acta Energiae Solaris Sinica, 2010, 31 (07): : 834 - 838
  • [48] Design of a SCADA system to prevent freezing in oil pipes
    Ghassoul, M.
    AlMishal, S.R.A.
    Ali, B.A.
    Thabit, A.A.N.
    Lecture Notes in Electrical Engineering, 2015, 312 : 545 - 550
  • [49] Determination procedure of the heat resistance of ceramics using radiant heating
    Pasichnyi, V. V.
    Panichkina, V. V.
    Radchenko, P. Ya
    Ostapenko, S. A.
    Get'man, O. I.
    STRENGTH OF MATERIALS, 2012, 44 (04) : 404 - 409
  • [50] Determination procedure of the heat resistance of ceramics using radiant heating
    V. V. Pasichnyi
    V. V. Panichkina
    P. Ya. Radchenko
    S. A. Ostapenko
    O. I. Get’man
    Strength of Materials, 2012, 44 : 404 - 409