期刊文献+

Experimental Study on Flow Structure of a Swirling Non-Premixed Syngas Flame

Experimental Study on Flow Structure of a Swirling Non-Premixed Syngas Flame
原文传递
导出
摘要 The development of integrated gasification combined cycle (IGCC) systems provides cost-effective and environmentally sound options for meeting the future coal-utilizing power generation needs in the worht. The combustion of gasified coal fuel significantly influences overall performance of IGCC power generation. Experi- ments are performed to investigate the characteristics of syngas swirling flame using the particle image velocimetry (PIV) in this paper. With the increase of CO/H2 molar ratio, the distance between the nozzle and the fuel vortex in flame increases at first, and then reduces slowly; maximum of the axial mean velocity increases continuously, but the axial mean velocity peaks on the side of centerline change little. The experiment indicates that with the increase of fuel to air velocity ratio, the fuel vortex grows up at first, and then becomes thinner; the distance from the fuel vortex to the nozzle reduces at first, and then increases; inner boundary of the recirculating zone increases. Furthermore, difference between the methane swirling flow field and the syngas swirling one is analyzed in this paper. It can establish the benchmarks for the development and validation of combustion numerical simulation by the data from this experiment. The development of integrated gasification combined cycle(IGCC) systems provides cost-effective and environmentally sound options for meeting the future coal-utilizing power generation needs in the world.The combustion of gasified coal fuel significantly influences overall performance of IGCC power generation.Experiments are performed to investigate the characteristics of syngas swirling flame using the particle image velocimetry (PIV) in this paper.With the increase of CO/H2 molar ratio,the distance between the nozzle and the fuel vortex in flame increases at first,and then reduces slowly;maximum of the axial mean velocity increases continuously, but the axial mean velocity peaks on the side of centerline change little.The experiment indicates that with the increase of fuel to air velocity ratio,the fuel vortex grows up at first,and then becomes thinner;the distance from the fuel vortex to the nozzle reduces at first,and then increases;inner boundary of the recirculating zone increases. Furthermore,difference between the methane swirling flow field and the syngas swirling one is analyzed in this paper.It can establish the benchmarks for the development and validation of combustion numerical simulation by the data from this experiment.
出处 《Journal of Shanghai Jiaotong university(Science)》 EI 2013年第1期92-100,共9页 上海交通大学学报(英文版)
基金 the National Basic Research Program (973) of China(No.2007CB210102)
  • 相关文献

参考文献11

  • 1PRONSKE K,TROWSDALE L,MACADAM S. An overview of turbine and combustor development for coal-based oxy-syngas systems[A].Barcelona:ASME,2006.817-828.
  • 2WALTON S M,HE X,ZIGLER B T. An experimental investigation of the ignition properties of hydrogen and carbon monoxide mixtures for syngas turbine applications[A].Heidelberg:Elsevier,2007.3147-3154.
  • 3HASEGAWA T,HISAMATSU T,KATSUKI Y. Development of low NOx combustion technology in mediumBtu fueled 1300℃-class gas turbine combustor in an integrated coal gasification combined cycle[J].Journal of Engineering for Gas Turbines and Power,Transactions of the ASME,2003,(01):1-10.
  • 4TSURIKOV M,MEIER W,GEIGLE K P. Investigations of a syngas-fired gas turbine model combustor by planar laser techniques[A].Barcelona:ASME,2006.303-309.
  • 5DOMENICO M D,KUTNE P,NAUMANN C. Numerical and experimental investigation of syngas combustion in a semi-technical scale burner[A].Orlando:AIAA,2010.1147-1162.
  • 6IYER V,HAYNES J,MAY P. Evaluation of emissions performance of existing combustion technologies for syngas combustion[A].Reno-Tahoe:ASME,2005.353-365.
  • 7LIU Ying-zheng,CHEN Han-ping. Experimental investigation into swirling recirculating flow using PIV[J].Journal of Hydrodynmic,2003,(05):601-606.
  • 8GUPTA A K,LILLEY D G,SYRED N. Swirl flows[M].Tunbridge Wells:Abacus Press,1984.
  • 9STANISLAS M,MONNIER J C. Practical aspects of image recording in particle image velocimetry[J].Measurement Science and Technology,1997.1417-1426.
  • 10KEANE R D,ADRIAN R J. Optimization of particle image velocimeters.Part 1.Double pulsed systems[J].Measurement Science and Technology,1990.1202-1215.

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