A reduced mechanism, which could couple with a multi-dimensional computational fluid dynamics code, was developed for the chemical kinetics of diesel surrogate fuel oxidation in modeling polycyclic aromatic hydrocarbon (PAH) formation under homogeneous charge compression ignition (HCCI) diesel engine conditions. The complete kinetic mechanism, which comprised 697 reactions and 153 species, was reduced to a minor mechanism that included only 141 reactions and 75 species using the sensitivity and reaction path analyses. Validation of the present mechanism was also performed with experiments from the shock tube available in the literature, and good agreement between modeling results of the detailed mechanism in the shock tube and HCCI engine w...
A detailed chemical kinetic model has been developed that accurately describes pyrolysis, ignition a...
Calculations on a Homogeneous Charge Compression Ignition (HCCI) engine have been performed. Zero-di...
In this work, a reduced <i>n</i>-decane/α-methylnaphthalene/polycyclic aromatic hydrocarbon (PAH) ki...
A reduced mechanism, which could couple with a multi-dimensional computational fluid dynamics code, ...
Limited size chemical reaction mechanisms predicting ignition and combustion development of practica...
This paper describes an analysis of the Diesel Oil Surrogate (DOS) model used at Chalmers University...
The rapid development of computer hardware during the past decade has contributed substantially to a...
The rapid development of computer hardware during the past decade has contributed substantially to a...
Operation of a Diesel engine in HCCI combustion mode is typically restricted to moderate engine load...
An improved surrogate diesel fuel composition has been proposed to simulate the autoignition time of...
Limited size chemical reaction mechanisms predicting ignition and combustion development of practica...
Modeling combustion of transportation fuels remains a difficult task due to the extremely large numb...
During the last decade an alternative to conventional internal combustion engines, i.e. spark-ignite...
Two separate reaction mechanisms were developed to predict the auto-ignition and combustion processe...
© 2016 Elsevier Ltd A reduced reaction mechanism has been developed for modeling Reactivity Controll...
A detailed chemical kinetic model has been developed that accurately describes pyrolysis, ignition a...
Calculations on a Homogeneous Charge Compression Ignition (HCCI) engine have been performed. Zero-di...
In this work, a reduced <i>n</i>-decane/α-methylnaphthalene/polycyclic aromatic hydrocarbon (PAH) ki...
A reduced mechanism, which could couple with a multi-dimensional computational fluid dynamics code, ...
Limited size chemical reaction mechanisms predicting ignition and combustion development of practica...
This paper describes an analysis of the Diesel Oil Surrogate (DOS) model used at Chalmers University...
The rapid development of computer hardware during the past decade has contributed substantially to a...
The rapid development of computer hardware during the past decade has contributed substantially to a...
Operation of a Diesel engine in HCCI combustion mode is typically restricted to moderate engine load...
An improved surrogate diesel fuel composition has been proposed to simulate the autoignition time of...
Limited size chemical reaction mechanisms predicting ignition and combustion development of practica...
Modeling combustion of transportation fuels remains a difficult task due to the extremely large numb...
During the last decade an alternative to conventional internal combustion engines, i.e. spark-ignite...
Two separate reaction mechanisms were developed to predict the auto-ignition and combustion processe...
© 2016 Elsevier Ltd A reduced reaction mechanism has been developed for modeling Reactivity Controll...
A detailed chemical kinetic model has been developed that accurately describes pyrolysis, ignition a...
Calculations on a Homogeneous Charge Compression Ignition (HCCI) engine have been performed. Zero-di...
In this work, a reduced <i>n</i>-decane/α-methylnaphthalene/polycyclic aromatic hydrocarbon (PAH) ki...