Proceedings of the Combustion Institute, ISSN 1540-7489, 2013, Volume 34, Issue 2, pp. 3049 - 3056
A detailed chemical kinetic reaction mechanism previously developed to study combustion of soy and rapeseed oil methyl ester biodiesel fuels is used to...
Diesel engines | Reaction mechanisms | Biodiesel fuels | Ignition
Diesel engines | Reaction mechanisms | Biodiesel fuels | Ignition
Journal Article
Proceedings of the Combustion Institute, ISSN 1540-7489, 2009, Volume 32, Issue 1, pp. 255 - 262
Ignition studies of two C esters were performed using a rapid compression facility. Methyl butanoate and ethyl propanoate were chosen to have matching...
Ester | Biofuel | Rapid compression facility | Chemical reaction mechanism | Ignition
Ester | Biofuel | Rapid compression facility | Chemical reaction mechanism | Ignition
Journal Article
Energy & Fuels, ISSN 0887-0624, 11/2011, Volume 25, Issue 11, pp. 5215 - 5223
The numerical study of engine combustion requires the coupling of advanced computational fluid dynamics and accurate chemical kinetic models. This task becomes...
Fossil Fuels | MIXTURES | OXIDATION | ENGINEERING, CHEMICAL | REDUCTION | SHOCK-TUBE | ENERGY & FUELS | KINETICS | DIRECTED RELATION GRAPH | SOOTING TENDENCY | ISOOCTANE | FUELS | Reduction | Computational fluid dynamics | Computer simulation | Gasoline | Reaction kinetics | Mathematical models | Combustion | Fuels | Engines
Fossil Fuels | MIXTURES | OXIDATION | ENGINEERING, CHEMICAL | REDUCTION | SHOCK-TUBE | ENERGY & FUELS | KINETICS | DIRECTED RELATION GRAPH | SOOTING TENDENCY | ISOOCTANE | FUELS | Reduction | Computational fluid dynamics | Computer simulation | Gasoline | Reaction kinetics | Mathematical models | Combustion | Fuels | Engines
Journal Article
Combustion and Flame, ISSN 0010-2180, 2011, Volume 158, Issue 12, pp. 2338 - 2357
Conventional petroleum jet and diesel fuels, as well as alternative Fischer–Tropsch (FT) fuels and hydrotreated renewable jet (HRJ) fuels, contain high...
n-Alkanes | 2-Methylheptane | Iso-alkanes | Mechanism reduction | Chemical kinetic modeling | 2-Methylalkanes | HIGH-TEMPERATURE OXIDATION | PART I | N-HEPTANE | METHYL DECANOATE | ENERGY & FUELS | DIRECTED RELATION GRAPH | REFERENCE FUELS | ENGINEERING, MECHANICAL | ENGINEERING, CHEMICAL | PREMIXED FLAMES | THERMODYNAMICS | ENGINEERING, MULTIDISCIPLINARY | ENGINE COMBUSTION SIMULATIONS | REACTION-MECHANISMS | IGNITION
n-Alkanes | 2-Methylheptane | Iso-alkanes | Mechanism reduction | Chemical kinetic modeling | 2-Methylalkanes | HIGH-TEMPERATURE OXIDATION | PART I | N-HEPTANE | METHYL DECANOATE | ENERGY & FUELS | DIRECTED RELATION GRAPH | REFERENCE FUELS | ENGINEERING, MECHANICAL | ENGINEERING, CHEMICAL | PREMIXED FLAMES | THERMODYNAMICS | ENGINEERING, MULTIDISCIPLINARY | ENGINE COMBUSTION SIMULATIONS | REACTION-MECHANISMS | IGNITION
Journal Article
6.
Full Text
Comprehensive chemical kinetic modeling of the oxidation of 2-methylalkanes from C7 to C20
Combustion and Flame, ISSN 0010-2180, 12/2011, Volume 158, Issue 12, pp. 2338 - 2357
Conventional petroleum jet and diesel fuels, as well as alternative Fischer-Tropsch (FT) fuels and hydrotreated renewable jet (HRJ) fuels, contain high...
2-Methylheptane | Iso-alkanes | N-Alkanes | Mechanism reduction | Chemical kinetic modeling | 2-Methylalkanes | or physical chemistry | Reactive fluid environment | Engineering Sciences | Chemical Sciences | Theoretical and
2-Methylheptane | Iso-alkanes | N-Alkanes | Mechanism reduction | Chemical kinetic modeling | 2-Methylalkanes | or physical chemistry | Reactive fluid environment | Engineering Sciences | Chemical Sciences | Theoretical and
Journal Article
Combustion and Flame, ISSN 0010-2180, 09/2018, Volume 195, Issue C, pp. 50 - 62
A new method of using chemical kinetic reaction modeling to predict the Research Octane Number (RON) and Motor Octane Number (MON) of single component fuels...
Octane ratings | Kinetics | IGNITION DELAY-TIME | HIGH-PRESSURE | JET-STIRRED REACTOR | SHOCK-TUBE | ENERGY & FUELS | RAPID COMPRESSION MACHINE | OXYGENATED FUELS | ENGINEERING, MECHANICAL | ENGINEERING, CHEMICAL | LOW-TEMPERATURE OXIDATION | THERMODYNAMICS | ENGINEERING, MULTIDISCIPLINARY | BIODIESEL FUELS | TOLUENE REFERENCE FUELS | N-BUTYLBENZENE | Chemical reaction, Rate of | Toluene | Analysis | Methods | INORGANIC, ORGANIC, PHYSICAL, AND ANALYTICAL CHEMISTRY
Octane ratings | Kinetics | IGNITION DELAY-TIME | HIGH-PRESSURE | JET-STIRRED REACTOR | SHOCK-TUBE | ENERGY & FUELS | RAPID COMPRESSION MACHINE | OXYGENATED FUELS | ENGINEERING, MECHANICAL | ENGINEERING, CHEMICAL | LOW-TEMPERATURE OXIDATION | THERMODYNAMICS | ENGINEERING, MULTIDISCIPLINARY | BIODIESEL FUELS | TOLUENE REFERENCE FUELS | N-BUTYLBENZENE | Chemical reaction, Rate of | Toluene | Analysis | Methods | INORGANIC, ORGANIC, PHYSICAL, AND ANALYTICAL CHEMISTRY
Journal Article
Combustion and Flame, ISSN 0010-2180, 2011, Volume 158, Issue 4, pp. 742 - 755
A detailed chemical kinetic reaction mechanism is developed for the five major components of soy biodiesel and rapeseed biodiesel fuels. These components,...
Biofuels | Reaction mechanisms | Chemical kinetics | COMBUSTION | HYDROCARBONS | ENERGY & FUELS | AUTOIGNITION | DIESEL-ENGINES | ENGINEERING, CHEMICAL | LOW-TEMPERATURE OXIDATION | MOTORED ENGINE | THERMODYNAMICS | ENGINEERING, MULTIDISCIPLINARY | SELF-IGNITION | METHYL-ESTERS | DOUBLE-BOND | BUTANOATE | or physical chemistry | Chemical Sciences | Theoretical and | INORGANIC, ORGANIC, PHYSICAL AND ANALYTICAL CHEMISTRY | 09 BIOMASS FUELS | 30 DIRECT ENERGY CONVERSION
Biofuels | Reaction mechanisms | Chemical kinetics | COMBUSTION | HYDROCARBONS | ENERGY & FUELS | AUTOIGNITION | DIESEL-ENGINES | ENGINEERING, CHEMICAL | LOW-TEMPERATURE OXIDATION | MOTORED ENGINE | THERMODYNAMICS | ENGINEERING, MULTIDISCIPLINARY | SELF-IGNITION | METHYL-ESTERS | DOUBLE-BOND | BUTANOATE | or physical chemistry | Chemical Sciences | Theoretical and | INORGANIC, ORGANIC, PHYSICAL AND ANALYTICAL CHEMISTRY | 09 BIOMASS FUELS | 30 DIRECT ENERGY CONVERSION
Journal Article
Combustion and Flame, ISSN 0010-2180, 2002, Volume 129, Issue 3, pp. 253 - 280
A detailed chemical kinetic mechanism has been developed and used to study the oxidation of iso-octane in a jet-stirred reactor, flow reactors, shock tubes and...
PEROXY-RADICALS | HIGH-PRESSURE | COMBUSTION | N-HEPTANE | KINETIC DATA | ENERGY & FUELS | FLOW REACTOR | ISOOCTANE | GAS-PHASE OXIDATION | ENGINEERING, CHEMICAL | LOW-TEMPERATURE OXIDATION | THERMODYNAMICS | ENGINEERING, MULTIDISCIPLINARY | CHEMISTRY
PEROXY-RADICALS | HIGH-PRESSURE | COMBUSTION | N-HEPTANE | KINETIC DATA | ENERGY & FUELS | FLOW REACTOR | ISOOCTANE | GAS-PHASE OXIDATION | ENGINEERING, CHEMICAL | LOW-TEMPERATURE OXIDATION | THERMODYNAMICS | ENGINEERING, MULTIDISCIPLINARY | CHEMISTRY
Journal Article
Combustion and Flame, ISSN 0010-2180, 01/2014, Volume 161, Issue 1, pp. 65 - 74
This study presents new ignition delay data measured in a rapid compression machine over a wide range temperature, pressure and fuel/air ratio. This data is an...
Rapid compression machine | Shock tube | Propylbenzene | Ignition delay times | Butylbenzene | Ignition | OXIDATION | COMBUSTION | BENZENE | HYDROCARBONS | SHOCK-TUBE | ENERGY & FUELS | ETHYLBENZENE | AUTOIGNITION | ENGINEERING, CHEMICAL | THERMODYNAMICS | ENGINEERING, MULTIDISCIPLINARY | Analysis | Automated teller machines | Accuracy | Equivalence ratio | Compressed gas | Data compression | Shock tubes | Combustion | Delay | INORGANIC, ORGANIC, PHYSICAL AND ANALYTICAL CHEMISTRY | 30 DIRECT ENERGY CONVERSION
Rapid compression machine | Shock tube | Propylbenzene | Ignition delay times | Butylbenzene | Ignition | OXIDATION | COMBUSTION | BENZENE | HYDROCARBONS | SHOCK-TUBE | ENERGY & FUELS | ETHYLBENZENE | AUTOIGNITION | ENGINEERING, CHEMICAL | THERMODYNAMICS | ENGINEERING, MULTIDISCIPLINARY | Analysis | Automated teller machines | Accuracy | Equivalence ratio | Compressed gas | Data compression | Shock tubes | Combustion | Delay | INORGANIC, ORGANIC, PHYSICAL AND ANALYTICAL CHEMISTRY | 30 DIRECT ENERGY CONVERSION
Journal Article
Proceedings of the Combustion Institute, ISSN 1540-7489, 2013, Volume 34, Issue 1, pp. 443 - 451
The detailed chemical structures of low-pressure premixed laminar flames fueled by three simple unsaturated C H O esters, the methyl crotonate (MC), methyl...
Unsaturated esters | C5H8O2 isomers | Photoionization mass spectrometry | Premixed flames | OXIDATION | CROSS-SECTIONS | MECHANISM | FORMATE | ENERGY & FUELS | COMBUSTION CHEMISTRY | IDENTIFICATION | ENGINEERING, MECHANICAL | ENGINEERING, CHEMICAL | THERMODYNAMICS | ISOMERS | ACETATE | ETHYL | FUELS
Unsaturated esters | C5H8O2 isomers | Photoionization mass spectrometry | Premixed flames | OXIDATION | CROSS-SECTIONS | MECHANISM | FORMATE | ENERGY & FUELS | COMBUSTION CHEMISTRY | IDENTIFICATION | ENGINEERING, MECHANICAL | ENGINEERING, CHEMICAL | THERMODYNAMICS | ISOMERS | ACETATE | ETHYL | FUELS
Journal Article
Fuel, ISSN 0016-2361, 10/2014, Volume 134, pp. 26 - 38
High temperature pyrolysis of methyl propanoate (CH CH C( O)O CH ) and ethyl propanoate (CH CH C( O)O CH CH ) was studied behind reflected shock waves at...
Pyrolysis | Shock tube | Methyl propanoate | Ethyl propanoate | Biodiesel | OXIDATION | ENERGY & FUELS | DECOMPOSITION | COMBUSTION CHEMISTRY | MU-M | OXYGENATED FUELS | BIODIESEL SURROGATE | ENGINEERING, CHEMICAL | PREMIXED FLAMES | TEMPERATURE | ESTERS | LASER-ABSORPTION | Chemical reaction, Rate of | Comparative analysis
Pyrolysis | Shock tube | Methyl propanoate | Ethyl propanoate | Biodiesel | OXIDATION | ENERGY & FUELS | DECOMPOSITION | COMBUSTION CHEMISTRY | MU-M | OXYGENATED FUELS | BIODIESEL SURROGATE | ENGINEERING, CHEMICAL | PREMIXED FLAMES | TEMPERATURE | ESTERS | LASER-ABSORPTION | Chemical reaction, Rate of | Comparative analysis
Journal Article
Proceedings of the Combustion Institute, ISSN 1540-7489, 2011, Volume 33, Issue 1, pp. 185 - 192
A detailed chemical kinetic reaction mechanism is developed for primary reference fuel mixtures of -hexadecane and 2,2,4,4,6,8,8-heptamethyl nonane for diesel...
Kinetic mechanisms | Mechanisms | Oxidation | COMBUSTION | N-HEPTANE | SHOCK-TUBE | ENERGY & FUELS | AUTOIGNITION | ENGINEERING, MECHANICAL | RAPID COMPRESSION | ENGINEERING, CHEMICAL | THERMODYNAMICS | TEMPERATURE | HEXADECANE | ISOMERS | SELF-IGNITION | Chemical reaction, Rate of | Usage | Analysis | Cetane number | Reaction kinetics | Diesel | Cetane | Diesel fuels | Fuels | Reaction mechanisms | Ratings
Kinetic mechanisms | Mechanisms | Oxidation | COMBUSTION | N-HEPTANE | SHOCK-TUBE | ENERGY & FUELS | AUTOIGNITION | ENGINEERING, MECHANICAL | RAPID COMPRESSION | ENGINEERING, CHEMICAL | THERMODYNAMICS | TEMPERATURE | HEXADECANE | ISOMERS | SELF-IGNITION | Chemical reaction, Rate of | Usage | Analysis | Cetane number | Reaction kinetics | Diesel | Cetane | Diesel fuels | Fuels | Reaction mechanisms | Ratings
Journal Article
Combustion and Flame, ISSN 0010-2180, 1998, Volume 114, Issue 1, pp. 149 - 177
A detailed chemical kinetic mechanism has been developed and used to study the oxidation of n-heptane in flow reactors, shock tubes, and rapid compression...
HYDROGEN-ATOM ABSTRACTION | JET-STIRRED REACTOR | ENERGY & FUELS | HIGH-TEMPERATURES | ISOMERIZATION-REACTIONS | RAPID COMPRESSION MACHINE | ENGINEERING, CHEMICAL | CFR ENGINE | THERMODYNAMICS | ENGINEERING, MULTIDISCIPLINARY | ARRHENIUS PARAMETERS | REACTION-MECHANISM | REACTION-KINETICS | HYDROCARBON-AIR MIXTURES
HYDROGEN-ATOM ABSTRACTION | JET-STIRRED REACTOR | ENERGY & FUELS | HIGH-TEMPERATURES | ISOMERIZATION-REACTIONS | RAPID COMPRESSION MACHINE | ENGINEERING, CHEMICAL | CFR ENGINE | THERMODYNAMICS | ENGINEERING, MULTIDISCIPLINARY | ARRHENIUS PARAMETERS | REACTION-MECHANISM | REACTION-KINETICS | HYDROCARBON-AIR MIXTURES
Journal Article
Proceedings of the Combustion Institute, ISSN 1540-7489, 2011, Volume 33, Issue 1, pp. 383 - 389
New chemical kinetic reaction mechanisms are developed for two of the five major components of biodiesel fuel, methyl stearate and methyl oleate. The...
Oxidation | Biofuels | Kinetic mechanisms | Modeling | COMBUSTION | JET-STIRRED REACTOR | N-HEXADECANE | EMISSIONS | ENERGY & FUELS | DIESEL-ENGINES | LOW-TEMPERATURE | ENGINEERING, MECHANICAL | ENGINEERING, CHEMICAL | THERMODYNAMICS | ESTERS | SELF-IGNITION | DOUBLE-BOND | Chemical properties | Chemical reaction, Rate of | Biomass energy | Biodiesel fuels | Analysis | Computation | Reaction kinetics | Esters | Fuels | Reaction mechanisms | Biodiesel | Bonding | Stearates | or physical chemistry | Chemical Sciences | Theoretical and
Oxidation | Biofuels | Kinetic mechanisms | Modeling | COMBUSTION | JET-STIRRED REACTOR | N-HEXADECANE | EMISSIONS | ENERGY & FUELS | DIESEL-ENGINES | LOW-TEMPERATURE | ENGINEERING, MECHANICAL | ENGINEERING, CHEMICAL | THERMODYNAMICS | ESTERS | SELF-IGNITION | DOUBLE-BOND | Chemical properties | Chemical reaction, Rate of | Biomass energy | Biodiesel fuels | Analysis | Computation | Reaction kinetics | Esters | Fuels | Reaction mechanisms | Biodiesel | Bonding | Stearates | or physical chemistry | Chemical Sciences | Theoretical and
Journal Article
16.
Full Text
Ignition delay times of methyl oleate and methyl linoleate behind reflected shock waves
Proceedings of the Combustion Institute, ISSN 1540-7489, 2013, Volume 34, Issue 1, pp. 419 - 425
Ignition delay times for methyl oleate (C H O , CAS: 112-62-9) and methyl linoleate (C H O , CAS: 112-63-0) were measured for the first time behind reflected...
Ignition delay time | Methyl oleate | Methyl linoleate | Aerosol shock tube | Biodiesel fuel | OXIDATION | COMBUSTION | JET-STIRRED REACTOR | ENERGY & FUELS | MECHANISMS | AUTOIGNITION | ENGINEERING, MECHANICAL | ENGINEERING, CHEMICAL | PRESSURE | THERMODYNAMICS | DIESEL | BIODIESEL | PYROLYSIS | FUELS
Ignition delay time | Methyl oleate | Methyl linoleate | Aerosol shock tube | Biodiesel fuel | OXIDATION | COMBUSTION | JET-STIRRED REACTOR | ENERGY & FUELS | MECHANISMS | AUTOIGNITION | ENGINEERING, MECHANICAL | ENGINEERING, CHEMICAL | PRESSURE | THERMODYNAMICS | DIESEL | BIODIESEL | PYROLYSIS | FUELS
Journal Article
Proceedings of the Combustion Institute, ISSN 1540-7489, 2009, Volume 32, Issue 1, pp. 221 - 228
A detailed chemical kinetic reaction mechanism has been developed for a group of four small alkyl ester fuels, consisting of methyl formate, methyl acetate,...
Oxygenates | Laminar flames | Kinetic modeling | Reaction mechanisms | COMBUSTION | FORMATE | ENERGY & FUELS | DIESEL-ENGINES | ENGINEERING, MECHANICAL | ENGINEERING, CHEMICAL | THERMODYNAMICS | ACETATE OXIDATION | METHYL BUTANOATE | ETHYL | FUELS
Oxygenates | Laminar flames | Kinetic modeling | Reaction mechanisms | COMBUSTION | FORMATE | ENERGY & FUELS | DIESEL-ENGINES | ENGINEERING, MECHANICAL | ENGINEERING, CHEMICAL | THERMODYNAMICS | ACETATE OXIDATION | METHYL BUTANOATE | ETHYL | FUELS
Journal Article
Combustion and Flame, ISSN 0010-2180, 2011, Volume 158, Issue 7, pp. 1277 - 1287
Fischer–Tropsch (FT) fuels derived from biomass syngas are renewable fuels that can replace conventional petroleum fuels in jet engine and diesel engine...
Reaction mechanism | Alkane combustion | Diesel fuel surrogate | Opposed-flow diffusion flame | Chemical kinetic modeling | Iso-alkane combustion | COMBUSTION | LENNARD-JONES | HYDROCARBONS | ENERGY & FUELS | ISOMERIZATION | DECOMPOSITION | AUTOIGNITION | PARAMETERS | ENGINEERING, MECHANICAL | ENGINEERING, CHEMICAL | THERMODYNAMICS | ENGINEERING, MULTIDISCIPLINARY | HEPTANE | IGNITION | EXTINCTION | Propylene | Analysis | Combustion
Reaction mechanism | Alkane combustion | Diesel fuel surrogate | Opposed-flow diffusion flame | Chemical kinetic modeling | Iso-alkane combustion | COMBUSTION | LENNARD-JONES | HYDROCARBONS | ENERGY & FUELS | ISOMERIZATION | DECOMPOSITION | AUTOIGNITION | PARAMETERS | ENGINEERING, MECHANICAL | ENGINEERING, CHEMICAL | THERMODYNAMICS | ENGINEERING, MULTIDISCIPLINARY | HEPTANE | IGNITION | EXTINCTION | Propylene | Analysis | Combustion
Journal Article