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Original Articles

Combustion Simulation of a Diesel Engine in the pHCCI Mode with Split Injections by the Spatially Integrated CMC Model

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Pages 1241-1260 | Received 14 Jul 2009, Accepted 20 Jan 2010, Published online: 18 Aug 2010

REFERENCES

  • Albert , B.P. , and Ghandhi , J.B. 2004 . Residual gas measurements in a utility engine. SAE 2004-32-0029.
  • Amsden , A.A. , O'Rourke , P.J. , and Butler , T.D. 1989 . KIVA-II: A computer program for chemically reactive flows with sprays . Report No. LA-11560-MS, Los Alamos National Laboratory .
  • Barroso , G. , Escher , A. , and Boulouchos , K. 2005 . Experimental and numerical investigations on HCCI-combustion. SAE 2005-24-038.
  • Barths , H. , Antoni , C. , and Peters , N. 1998 . Three-dimensional simulation of pollutant formation in a DI diesel engine using multiple interactive flamelets. SAE 982459.
  • Carlucci , P. , Ficarella , A. , and Laforgia , D. 2003 . Effects of pilot injection parameters on combustion for common rail diesel engines. SAE 2003-01-0700.
  • Chung , J.W. , Kang , J.H. , Kim , N.H. , and Kang , W. 2007 . The effects of injection fuel ratio and injection timing on the emission and combustion performances of the partial premixed compression ignition combustion engine applied with the split injection method . KSAE07-S0055 , 1 , 358 – 363 .
  • Curran , H.J. , Gaffuri , P. , Pitz , W.J. , and Westbrook , C.K. 1998 . A comprehensive modeling study of n-heptane oxidation . Combust. Flame , 114 , 149 – 177 .
  • De Paola , G. , Mastorakos , E. , Wright , Y.M. , and Boulouchos , K. 2008 . Diesel engine simulations with multi-dimensional conditional moment closure . Combust. Sci. Tech. , 180 , 883 – 889 .
  • Dec , J.E. 2009 . Advanced compression-ignition engines―understanding the in-cylinder processes . Proc. Combust. Instit. , 32 , 2727 – 2742 .
  • Ghaffarpour , M.R. , and Noorpoor , A.R. 2007 . A numerical study of the use of pilot or split rate injection to reduce diesel engine noise . Proc. IMechE , 221 , 457 – 464 .
  • Glassman , I. 1996 . Combustion, , 3rd ed. , Academic Press , San Diego , CA .
  • Han , I.S. , and Huh , K.Y. 2005 . Conditional moment closure modeling of turbulent spray combustion in a direct injection diesel engine . Int. J. Automotive Tech. , 6 , 571 – 577 .
  • Hasegawa , R. , and Yanagihara , H. 2003 . HCCI combustion in DI diesel engine. SAE 2003-01-0745.
  • Johansson , B. 2007 . Homogeneous charge compression ignition: The future of IC engine? Int. Journal of Vehicle Design , 44 , 1 – 19 .
  • Juttu , S. , Marathe , S.S. , and Gajendra Babu , M.K. 2008 . Diesel HCCI Combustion control parameters study using n-heptane-reduced chemical kinetic mechanism. SAE 2008-28-0036.
  • Kim , D.S. , Kim , M.Y. , and Lee , C.S. 2005 . Combustion and emission characteristics of partial homogeneous charge compression ignition engine . Combust. Sci. Tech. , 177 , 107 – 125 .
  • Kim , S.H. , and Huh , K.Y. 2002a . Use of the conditional moment closure model to predict NO formation in a turbulent CH4/H2 flame over a bluff body . Combust. Flame , 48 , 1 – 26 .
  • Kim , W.T. , and Huh , K.Y. 2002b . Numerical simulation of spray autoignition by the first order conditional moment closure model . Proc. Combust. Instit. , 29 , 569 – 576 .
  • Kimura , S. , Aoki , O. , Ogawa , H. , Muranaka , S. , and Enomoto , Y. 1999 . New combustion concept for ultra-clean and high-efficiency small DI diesel engines. SAE 1999-01-3681.
  • Klimenko , A.Y. , and Bilger , R.W. 1999 . Conditional moment closure for turbulent combustion . Proceedings of Energy Combustion , 25 , 595 – 687 .
  • Liu , S. , Hewson , J.C. , Chen , J.H. , and Pitsch , H. 2004 . Effects of strain rate on high-pressure nonpremixed n-heptane autoignition in counterflow . Combust. Flame , 137 , 320 – 339 .
  • Markides , C.N. , De Paola , G. , and Mastorakos , E. 2007 . Measurements and simulations of mixing and autoignition of an n-heptane plume in a turbulent flow of heated air . Experimental Thermal and Fluid Science , 31 , 393 – 401 .
  • Maroteaux , F. , and Noel , L. 2006. Development of a reduced n-heptane oxidation mechanism for HCCI combustion modeling. Combust. Flame , 146, 246–267.
  • Mase , Y. , Kawashima , J. , Sato , T. , and Eguchi , M. 1998 . Nissan's new multivalve DI diesel engine series. SAE 981039.
  • Mobini , K. , and Bilger , R.W. 2009 . Parametric study of the incompletely stirred reactor modeling . Combust. Flame , 156 , 1818 – 1827 .
  • O'Brien , E. , and Jiang , T.L. 1991 . The conditional dissipation rate of an initial binary scalar in homogeneous turbulence . Phys. Fluids A. , 3 , 3121 – 3123 .
  • O'Rourke , P.J. , and Amsden , A.A. 2000 . A spray/wall interaction submodel for the KIVA-3 wall film model. SAE 2000-01-0271.
  • Peters , N. 2000 . Turbulent Combustion , Cambridge University Press , Cambridge , England .
  • Reitz , R.D. , Foster , D. , Ghandhi , J. , Sanders , S. , and Rutland , C. 2005 . HCCI engine optimization and control using diesel fuel. FY 2005 Annual Report, Advanced Combustion Engine Technologies , Washington , D.C.
  • Reveillon , J. , and Vervisch , L. 2000 . Spray vaporization in nonpremixed turbulent combustion modeling: A single droplet model . Combust. Flame , 121 , 75 – 90 .
  • Ryan , T.W. , and Gray , A.W. 1997 . Homogeneous charge compression ignition (HCCI) of diesel fuel. SAE 971676.
  • Seiser , H. , Pitsch , H. , Seshadri , K. , Pitz , W.J. , and Curran , H.J. 2000 . Extinction and autoignition of n-heptane in counterflow configuration . Proc. Combust. Instit. , 28 , 2029 – 2037 .
  • Seo , J.Y. , and Lee , Y.U. , Han , I.S. , Huh , K.Y. , and Kim , H.O. 2008 . Extended CMC model for turbulent spray combustion in a diesel engine. SAE 2008-01-2411.
  • Serinyel , Z. , Le Moyne , L. , and Guibert , P. 2007 . Homogeneous charge compression ignition as an alternative combustion mode for the future of internal combustion engines . Int. J. Vehicle Design , 44 , 1 – 2 .
  • Singh , S. , Reitz , R.D. , and Musculus , M.P.B. 2006 . Comparison of the characteristic time (CTC), representative interactive flamelet (RIF), and direct integration with detailed chemistry combustion models against optical diagnostic data for multi-mode combustion in a heavy-duty DI diesel engine. SAE 2006-01-0055.
  • Smith , N.S.A. , Bilger , R.W. , Carter , R.D. , Barlow , R.S. , and Chen , J.Y. 1995 . A comparison of CMC and PDF modeling predictions with experimental nitric oxide LIF/Raman measurements in a turbulent H2 jet flame . Combust. Sci. Tech. , 105 , 357 – 375 .
  • Sreedhara , S. , and Huh , K.Y. 2008 . Conditional statistics of nonreacting and reacting sprays in turbulent flows by direct numerical simulation . Proc. Combust. Instit. , 31 , 2335 – 2342 .
  • Su , W.H. , Lin , T.J. , Zhao , H. , and Pei , Y.Q. 2005 . Research and development of an advanced combustion system for the direct injection diesel engine . Proc. IMechE , 219 , 241 – 252 .
  • Takeda , Y. , and Keiichi , N. 1996 . Emission characteristics of premixed lean diesel combustion with extremely early staged fuel injection. SAE961163.
  • Tow , T.C. , Pierpont , D.A. , and Reitz , R.D. 1994 . Reducing particulate and NOx emissions by using multiple injections in a heavy duty D.I. diesel engine. SAE 940897.
  • Woschni , G. 1967 . Universally applicable equation for the instantaneous heat transfer coefficient in the internal combustion engine . SAE Trans. , 76 , 670931 .
  • Yao , M. , Zheng , Z. , and Liu , H. 2009 . Progress and recent trends in homogeneous charge compression ignition (HCCI) engines . Prog. Energy and Combustion Sceince , 25 , 398 – 437 .
  • Yokota , H. , Kudo , Y. , Nakajima , H. , Kakegawa , T. , and Suzuki , T. 1997 . A new concept for low emission diesel combustion. SAE 970891.
  • Zhang , Y.Z. , Kung , E.H. , and Haworth , D.C. 2005 . A PDF method for multidimensional modeling of HCCI engine combustion: Effects of turbulence/chemistry interactions on ignition timing and emissions . Proc. Combust. Instit. , 30 , 2763 – 2771 .

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