This paper is presented to study the combustion process and emissions in a direct injection diesel engine.
Computations are carried out using a three-dimensional model for flows, sprays, combustion and emissions in Diesel
engines. Interactions between combustion and emissions with flow field are considered and it is shown that soot mass
fraction increases at regions with low turbulence intensity and fuel rich zones. Impingement of spray with the piston
walls is also modeled by Wall-jet functions and is shown that soot mass fraction tends to increase at impinging zones.
Also in high temperature areas where Air Fuel Ratio (AFR) nears unity and oxygen is available, NOx mass fraction
will increase. Results of this model show a good agreement with the corresponding data in the literature.
Jafarmadar,S. , Barzegar,R. and Shafee,S. (2022). Three-Dimensional Modeling of Combustion Process, Soot and NOx formation In a Direct-injection Diesel Engine. The Journal of Engine Research, 14(14), 35-42.
MLA
Jafarmadar,S. , , Barzegar,R. , and Shafee,S. . "Three-Dimensional Modeling of Combustion Process, Soot and NOx formation In a Direct-injection Diesel Engine", The Journal of Engine Research, 14, 14, 2022, 35-42.
HARVARD
Jafarmadar S., Barzegar R., Shafee S. (2022). 'Three-Dimensional Modeling of Combustion Process, Soot and NOx formation In a Direct-injection Diesel Engine', The Journal of Engine Research, 14(14), pp. 35-42.
CHICAGO
S. Jafarmadar, R. Barzegar and S. Shafee, "Three-Dimensional Modeling of Combustion Process, Soot and NOx formation In a Direct-injection Diesel Engine," The Journal of Engine Research, 14 14 (2022): 35-42,
VANCOUVER
Jafarmadar S., Barzegar R., Shafee S. Three-Dimensional Modeling of Combustion Process, Soot and NOx formation In a Direct-injection Diesel Engine. Engine, 2022; 14(14): 35-42.