期刊文献+

Full-Scale Measurement and Numerical Analysis of Liquefied Petroleum Gas Water Heaters with Ventilation Factors in Balcony

Full-Scale Measurement and Numerical Analysis of Liquefied Petroleum Gas Water Heaters with Ventilation Factors in Balcony
下载PDF
导出
摘要 This study carried out full-scale gas water heater combustion experiments and adopted FDS (fire dynamics simulator) to simulate three scenarios--different balcony environments when using water heater, such as airtight balcony, indoor door with openings and force ventilation to compare with full-scale combustion experiments. According to FDS simulation results, 02, CO and CO2 simulation concentration value correspond with full-scale experimental results. When the indoor O2 concentration was lower than 15%, which causes incomplete combustion, the CO concentration would rise rapidly and even reached above 1,500 ppm, causing death in short time. In addition, when the force ventilation model supplied the water heater with enough air to bum, the indoor CO concentration will keep low and harmless to humans. The study also adopted diverse variables, such as the opening area of window, outdoor wind speed and water heater types, to analyze deeply user's safety regarding gas water heater. In a result, while balcony area is larger than 14 mE, the volume of water heater is below 16 L (33.1 kW), and the indoor window, connecting balcony with room, is closed, if the opening on the outdoor window of the balcony is larger than 0.2 mE, this can ensure the personal security of the indoor space.
出处 《Journal of Civil Engineering and Architecture》 2015年第11期1341-1353,共13页 土木工程与建筑(英文版)
关键词 Water heater carbon monoxide FDS POISON LPG (liquefied petroleum gas). 燃气热水器 液化石油气 数值分析 尺寸测量 通风因子 CO2浓度 室内空间 燃烧实验
  • 相关文献

参考文献13

  • 1NIST (National Institute of Standards and Technology). 2013. FDS User Guide. Gaithersburg: NIST.
  • 2Chang, W. R., and Cheng. C. L. 2008. "Carbon Monoxide Transport in an Enclosed Room with Sources from a Water Heater in the Adjacent Balcony." Building and Environment 43:861-70.
  • 3Aydin, O., and Boke, Y. E. 2010. An Experimental Study on Carbon Monoxide Emission Reduction at a Fire Tube Water Heater." Applied Thermal Engineering 30: 2658-62.
  • 4Chen, Q., Lee, K., Mazumdar, S., Poussou, S., and Wang, L. 2010. "Ventilation Performance Prediction for Buildings: Model Assessment." Building and Environment 45: 295-303.
  • 5Hu, L. H., Fong, N. K., Yang, L. Z., Chow, W. K., Li, Y. Z., and Huo, R. 2007. "Modeling Fire-lnduced Smoke Spread and Carbon Monoxide Transportation in a Long Channel: Fire Dynamics Simulator Comparisons with Measured Data." Journal of Hazardous Materials 140: 293-8.
  • 6Hu, L. H., Zhou, J. W., Huo, R., Peng, W., and Wang, H. B. 2008. "Confinement of Fire-lnduced Smoke and Carbon Monoxide Transportation by Air Curtain in Channels." Journal of Hazardous Materials 156: 327-34.
  • 7Chen, X. 2008. "Simulation of Temperature and Smoke Distribution of a Tunnel Fire Based on Modifications of Multi-layer Zone Model." Tunnelling and Underground Space Technology 23: 75-9.
  • 8Hu, L. H., Tang, F., Yang, D., Liu, S., and Huo, R. 2010. "Longitudinal Distributions of CO Concentration and Difference with Temperature Field in a Tunnel Fire Smoke Flow." International Journal of Heat and Mass Transfer 53: 2844-55.
  • 9Zalok, E., and Hadjisophocleous, G. V. 2011. Assessment of the Use of Fire Dynamics Simulator in Performance-Based Design." Fire Technology 47:1081-100.
  • 10Hadjisophocleous, G., and Jia, Q. 2009. "Comparison of FDS Prediction of Smoke Movement in a 10-Storey Building with Experimental Data." Fire Technology 45: 163-77.

相关作者

内容加载中请稍等...

相关机构

内容加载中请稍等...

相关主题

内容加载中请稍等...

浏览历史

内容加载中请稍等...
;
使用帮助 返回顶部