［4］ Wataru Iwanaga，Tadao Yamato，Tetsuya Kosaka，et al. Development of new industrial high power density diesel engines，2006-32-0002 [R]. Detroit：SAE，2006.
［9］ Kennaird D A. The influence of injector parameter on the formation and break-up of a diesel spra，2001-01-0529 [R]. Detroit：SAE，2001.
[6]
［11］ Kong S C，Kim H，Reitz R D，et al. Comparision of diesel PCCI combustion simulation using a representative interactive flamelet model and direct integration of CFD with detailed chemistry[J]. Transactions of ASME，2007，129：252-260.
[7]
［13］ Lehtiniemi H，Fabian M，Balthasar M，et al. Modelling diesel engine combustion with detailed chemistry using a progress variable approach，2005-01-3855[R]. Detroit：SAE，2005.
[8]
［16］ Martti Larmi，Jukka Tiainen. Diesel spray simulation and KH-RT wave model，2003-01-3231[R]. Detroit：SAE， 2003.
［19］ Ossi Kaario， Martti Larmi，Franz Tanner. Relating integral length scale to turbulent time scale and comparing k-ε and RNG k-ε turbulence models in diesel combustion simulation，2002-01-1117 [R]. Detroit：SAE，2002.
[11]
［2］ Hiroshi Sono，Mitsuhiro Shibata，Yutaka Tajima，et al. A study of high power output diesel engine with low peak cylinder pressure，2010-01-1107 [R]. Detroit：SAE， 2010.
[12]
［3］ Andrea Catania，Roberto Finesso，Ezio Spessa. Diagnostics of mixing process dynamics， combustion and emissions in a euro V diesel engines，2011-24-0018 [R]. Detroit：SAE，2011.
［12］ Kong S C，Reitz R D. Application of detailed chemistry and CFD for predicting direct injection HCCI engine combustion and emissions[J]. Proccedings of The Combustion Institute，2002，29：663-669.
[15]
［14］ Durbin P A. Separated flow computations with the k-ε-υ2 model[J]. AIAA Journal，1995，33 （4）：659-664.
[16]
［15］ Gianluca laccarino. Predictions of a turbulent separated flow using commercial CFD codes[J]. Journal of Fluids Engineering，2001，23：819-828.
[17]
［18］ Brink A，Mueller C, Kilpinen P，et al. Possibilities and limitations of the eddy break-up model[J]. Combustion and Flame， 2000，123: 275-279.
