MAIBOOM A, TAUZIA X, H?TET J F. Experimental study of various effects of exhaust gas recirculation (EGR) on combustion and emissions of an automotive direct injection diesel engine [J]. Energy, 2008, 33(1): 22-34.
[2]
RAIPUT K, BARMAN J, GOSWAMI A, et al. Experimental and simulation study to optimize the venturi throat diameter for effective use of EGR rate to achieve BSIV[C]//8th SAEINDIA International Mobility Conference and Exposition and Commercial Vehicle Engineering Congress 2013 (SIMCOMVEC)., 2013.
[3]
LAKHLANI H, BARMAN J, RAJPUT K, et al. Experimental study of EGR mixture design and its influence on EGR distribution across the cylinder for NOx-PM tradeoff[C]//8th SAEINDIA International Mobility Conference and Exposition and Commercial Vehicle Engineering Congress 2013 (SIMCOMVEC)., 2013.
[4]
KIM Y, PARK C, KIM J, et al. The effect of low temperature EGR and low compression ratio on NOx reduction for EU6 diesel engine[C]//8th SAEINDIA International Mobility Conference and Exposition and Commercial Vehicle Engineering Congress 2013 (SIMCOMVEC)., 2013.
[5]
MILLO F, BERNARDI M G, DELNERI D. Computational analysis of internal and external EGR strategies combined with Miller cycle concept for a two stage turbocharged medium speed marine diesel engine[J]. SAE International Journal of Engines, 2011, 4(1): 1319-1330.
[6]
POTTER M, DURRENTT R, MOTORS G. Design for compression ignition high-efficiency clean combustion engines[C]//Proceedings of the 12th Annual Directions in Engineefficiency and Emissions Research (DEER) Conference. Michigan, USA, 2006.
[7]
AKIHAMA K, TAKATORI Y, INAGAKI K, et al. Mechanism of the smokeless rich diesel combustion by reducing temperature[C]//SAE 2001 World Congress., 2001.
[8]
KIMURA S, AOKI O, KITAHARA Y, et al. Ultra-clean combustion technology combining a low-temperature and premixed combustion concept for meeting future emission standards[C]//SAE 2001 World Congress., 2001.
[9]
HANJALI? K, POPOVAC M, HAD? M. A robust near-wall elliptic-relaxation eddy-viscosity turbulence model for CFD[J]. International Journal of Heat Fluid Flow, 2004, 25(6): 1047-1051.
[10]
HUH K Y, GOSMAN A D. A phenomenological model of diesel spray atomization[C]//Proceedings of the international conference on multiphase flows. Tsukuba, Japan, 1991: 24-27.
[11]
NABER J, REITS R D. Modeling engine spray/wall impingement[C]. SAE 1988 World Congress., 1988.
[12]
DUKOWICZ J K. A particle-fluid numerical model for liquid sprays[J]. Journal of Computational Physics, 1980, 35(2): 229-253.
[13]
LAUNDER B E, RODI W. The turbulent wall jet measurements and modeling[J]. Annual Review of Fluid Mechanics, 1983, 15(1): 429-459.
[14]
GOSMAN A D, IOANNIDES E. Aspects of computer simulation of liquid-fueled combustors[J]. Journal of Energy, 1983, 7(6): 482-490.
[15]
COLIN O, BENKENID A. The 3-Zones extended coherent flame model (ecfm3z) for computing premixed/diffusion combustion[J]. Oil and Gas Science and Technology, 2004, 59(6): 593-609.
[16]
HIROYASU H, KADOTA T, ARAI M. Development and use of a spray combustion modeling to predict diesel engine efficiency and pollutant emissions: Part 1 combustion modeling[J]. Bulletin of the Japan Society of Mechanical Engineers, 1983, 26(214): 569-575.
[17]
JUNG Y J, QI D H, BAE C. Assessment of soot particles in an exhaust gas for low temperature diesel combustion with high EGR in a heavy duty compression ignition engine[C]//8th SAEINDIA International Mobility Conference and Exposition and Commercial Vehicle Engineering Congress 2013 (SIMCOMVEC)., 2013.