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旋流器特征参数对高温升燃烧室性能的影响 被引量:11

Effect of Swirler Characteristic Parameters on Combustion Performance of HTR Combustor
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摘要 利用数值模拟方法考察了3级旋流器特征参数(旋向组合、旋流数)对提出的中心分级燃烧室燃烧性能的影响。对12种不同的方案进行了比较,选出了最优的3级旋流器匹配方案。计算结果表明:3级旋流器的特征参数对燃烧室流场结构和燃烧性能有很大影响;合理的旋流器旋向组合和旋流数是提高燃烧室性能的关键因素。3级旋流器旋向组合为第1、2级反向,第2、3级同向,旋流角度组合为第1级40°,第2、3级均为45°时,燃烧室可以达到最佳的燃烧效果。 The effect of triple-swirler characteristic parameters (swirling directions and swirl number) on the the proposed cencentric staged combustor performance was examined by numerical simulation. The optimized triple-swirler design scheme was determined based on 12 different schemes comparison. The calculating results show that triple-swirler characteristic parameters have great influences on combustor flow field and combustion performances. Appropriate swirling directions and swirl numbers are the key factors to improve the combustor performance. When the primary and the second swirler are counter-rotating,the second and third swirler are synclastic-rotating, and the the primary swirl angle is 40~,the second and third swirl angles are both 45°,the combustor can work best.
出处 《航空发动机》 2015年第4期29-34,共6页 Aeroengine
基金 国家自然科学基金(50476005)资助
关键词 旋流器 高温升 中心分级燃烧室 出口温度分布 燃烧性能 航空发动机 swirler high temperature rise cencentric staged combustor outlet temperature distribution combustion performance aeroengine
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参考文献14

  • 1Bahr D W. Technology for the design of high temperature rise combus- tor[R]. AIAA-85-1292.
  • 2Mongia H C. Engineering aspects of complex gas turbine combustion mixers- Part I:high T[R]. AIAA-2011-01.
  • 3Mongia H C. Engineering aspects of complex gas turbine combustion mixers -Part II : high T3[R]. AIAA-2011-01.
  • 4Mongia H C. Engineering aspects of complex gas turbine combustion mixers- Part III: 30 OPR[R]. AIAA-2011-01.
  • 5Mongia H C. Engineering aspects of complex gas turbine combustion mixers -Part IV : swid cup[R]. AIAA-2011-01.
  • 6Mongia H C. Engineering aspects of complex gas turbine combustion mixers -Part V :40 OPR[R]. AIAA-2011-01.
  • 7Mongia H C. Recent progress in comprehensive modeling of gas turbine combustion[R]. AIAA-2008-1445.
  • 8Mongia H C. Perspective of combustion modeling for gas turbine combustors[R]. AIAA-2004-0156.
  • 9Mongia H C. On continuous NOx reduction of aem-propulsion engines [R]. AIAA-2010-1329.
  • 10Mongia H C. Recent progress in comprehensive modeling of gas turbine. combustion[R]. AIAA-2008-1445.

二级参考文献42

  • 1李卫东.一种根据燃气成分计算燃气温度的方法[J].中国民航学院学报,2006,24(4):23-26. 被引量:9
  • 2Mongia H C. TAPS A 4th generation propulsion combustor technology for low emissions[R]. AIAA Paper 2003 2657,2003.
  • 3SHI Jiarong,XU Huasheng. Designing features and critical technologies for civil aero engine combustor[C]//Propul sion Branch of the Aeronautic and Astronautic Acad. Shenzhen, China : [s. n. ],2007.
  • 4Stouffer S D, Ballal D R, Zelina J, et al. Development and combustion performance of a high pressure WSR and TAPS combustor[R]. AIAA Paper 2005 1416,2005.
  • 5Mongia H C. Perspective of combustion modeling for gas turbine combustors[R]. AIAA Paper 2004 156,2004.
  • 6Mongia H C. A synopsis of gas turbine combustor design methodology evolution of last 25 years[R]. ISABE- 2001- 1086,2001.
  • 7Martin B L,Ashwani K G. Twin fluid atomization and novel lifted swirl stabilized spray falme[J]. Journal of Pro pulsion and Power,2009,25(2) :344-357.
  • 8David L B, Clifford E S. Transient lean blowout modeling of an aero low emission fuel injector[R]. AIAA -2003- 4520, 2003.
  • 9Jun K, Quang V N. Observation of turbulent mixing in lean direct injection combustion at elevated pressure[J].AIAA Journal,2008,46(12) :3116-3127.
  • 10Stubbs R M,Liu N S. Preview of the national combustion code[R]. AIAA 97-3314,1997.

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