Name

Condition

References

H2_fls_002

H2/air; T=365K, P=1atm, φ=0.3-1

BLL2007

H2_fls_003

H2/air; T=365K, P=5atm, φ=0.3-1

BLL2007

H2_fls_004

H2/air; T=365K, P=10atm, φ=0.3-1

BLL2007

H2_fls_007

H2/O2/He;O2/He=1:3.76, T=298K, P=1atm, φ=0.60-4.5

KF2001

H2_fls_009

H2/O2/He;O2/He=1:7, T=298K, P=3atm, φ=0.6-3.5

TZL2000

H2_fls_010

H2/O2/He;O2/He=1:7, T=298K, P=5atm, φ=0.5-3.5

TZL2000

H2_fls_011

H2/O2/He;O2/He=1:11.5, T=298K, P=10atm, φ=0.85-2

TZL2000

H2_fls_013

H2/O2/He;O2/He=1:11.5, T=298K, P=20atm, φ=0.85-2

TZL2000

H2_fls_014

H2/O2/Ar;O2/Ar=1:3.76, T=298K, P=1atm, φ=0.6-4.5

KF2001

H2_fls_015

H2/O2/N2; φ=1.058, T=298K, P=1atm, O2/(O2+N2)=0.07-0.1

HKB2007

H2_fls_016_1

H2/air/diluent=N2; φ=1, T=298K, P=1atm, diluent Mole Fraction=0-0.64

QGD2007

H2_fls_016_2

H2/air/diluent=He; φ=1, T=298K, P=1atm, diluent Mole Fraction=0-0.64

QGD2007

H2_fls_016_3

H2/air/diluent=Ar; φ=1, T=298K, P=1atm, diluent Mole Fraction=0-0.73

QGD2007

H2_fls_016_4

H2/air/diluent=CO2; φ=1, T=298K, P=1atm, diluent Mole Fraction=0-0.5

QGD2007

H2_fls_017_1

H2/air/diluent=N2; φ=1, T=298K, P=1.8atm, diluent Mole Fraction=0-0.58

QGD2007

H2_fls_017_2

H2/air/diluent=Ar; φ=1, T=298K, P=1.8atm, diluent Mole Fraction=0-0.68

QGD2007

H2_fls_017_3

H2/air/diluent=CO2; φ=1, T=298K, P=1.8atm, diluent Mole Fraction=0-0.44

QGD2007

H2_fls_018_1

H2/air/diluent=N2; φ=1, T=298K, P=0.5atm, diluent Mole Fraction=0-0.66

QGD2007

H2_fls_018_2

H2/air/diluent=CO2; φ=1, T=298K, P=0.5atm, diluent Mole Fraction=0-0.52

QGD2007

H2_fls_019

0.1071H2/0.1785O2/0.7144He; T=295K, φ=0.3, Tad=1400K, P=1-10atm

BDJ2011

H2_fls_020

0.1026H2/0.1026O2/0.7948He; T=295K, φ=0.5, Tad=1400K, P=1-10atm

BDJ2011

H2_fls_021

0.1236H2/0.1236O2/0.7528He; T=295K, φ=0.5, Tad=1600K, P=1-10atm

BDJ2011

H2_fls_022

0.1008H2/0.072O2/0.8272He; T=295K, φ=0.7, Tad=1400K, P=1-10atm

BDJ2011

H2_fls_023

0.1209H2/0.0863O2/0.7928He; T=295K, φ=0.7, Tad=1600K, P=1-25atm

BDJ2011

H2_fls_025

0.1093H2/0.0546O2/0.8361He; T=295K, φ=1, Tad=1500K, P=1-10atm

BCD2010

H2_fls_032

0.3846H2/0.0769O2/0.5385Ar; T=295K, φ=2.5, Tad=1800K, P=1-5atm

BCD2010

H2_ign_001

0.08H2/0.02O2/0.9Ar; P5=5atm, T5=964-1075K

SRZ1965

H2_ign_002

0.15H2/0.18O2/0.77Ar; P5=3.3atm, T5=906-1049K

PDH2009

H2_ign_003

0.04H2/0.02O2/0.94Ar; P5=3.5atm, T5=924-1118K

PDH2009

H2_ign_006

0.005H2/0.0025O2/0.9925Ar; P5=57atm, T5=1655-1930K

PDR1996

H2_ign_007

0.005H2/0.0025O2/0.9925Ar; P5=64atm, T5=1278-1344K

PDR1996

H2_ign_008

0.005H2/0.0025O2/0.9925Ar; P5=87atm, T5=1700-1715K

PDR1996

H2_ign_009

0.0033H2/0.0017O2/0.995Ar; P5=64atm, T5=1683-1779K

PDR1996

H2_ign_010

0.001H2/0.0005O2/0.9985Ar; P5=64atm, T5=1360-1876K

PDR1996

H2_ign_011

4H2/20.17O2/75.83N2; P5=0.45atm, T5=900-1213K

JS1968

H2_ign_012

2H2/1O2/3.76N2; P5=0.43atm, T5=953-1208K

JS1968

H2_ign_013

2H2/1O2/3.76N2; P5=1.02atm, T5=875-986K

SRZ1965

H2_ign_013

2H2/1O2/3.76N2; P5=1.02atm, T5=875-986K

CRR1966

H2_ign_014

2H2/1O2/3.76N2; P5=1.41atm, T5=894-1232K

JS1968

H2_ign_015

2H2/1O2/3.76N2; P5=2.04atm, T5=857-997K

SRZ1965

H2_ign_015

2H2/1O2/3.76N2; P5=2.04atm, T5=857-997K

CRR1966

H2_ign_016

2H2/1O2/3.76N2; P5=2.5atm, T5=1037-1322K

BG1973

H2_ign_017

2H2/1O2/3.76N2; P5=4.082atm, T5=914-976K

SRZ1965

H2_ign_018

2H2/1O2/3.76N2; P5=6.803atm, T5=882-942K

SRZ1965

H2_ign_019

2H2/1O2/3.76N2; P5=8.844atm, T5=808-932K

SRZ1965

H2_ign_020

1.5H2/1O2/3.76N2; P5=1.02atm, T5=911-969K

SRZ1965

H2_ign_021

1.5H2/1O2/3.76N2; P5=2.041atm, T5=850-993K

SRZ1965

H2_ign_022

1.5H2/1O2/3.76N2; P5=4.082atm, T5=880-1013K

SRZ1965

H2_ign_023

1.5H2/1O2/3.76N2; P5=6.803atm, T5=844-974K

SRZ1965

H2_ign_024

1H2/1O2/3.76N2; P5=1.02atm, T5=889-951K

SRZ1965

H2_ign_025

1H2/1O2/3.76N2; P5=2.041atm, T5=922-1047K

SRZ1965

H2_ign_026

1H2/1O2/3.76N2; P5=4.082atm, T5=919-1033K

SRZ1965

H2_ign_027

1H2/1O2/3.76N2; P5=6.803atm, T5=858-1073K

SRZ1965

H2_ign_028

1H2/1O2/3.76N2; P5=8.844atm, T5=831-963K

SRZ1965

H2_ign_029

29.6H2/14.8O2/65.6N2; P5=2atm, T5=984-1181K

SM1977

H2_ign_030

0.0081H2/0.0403O2/0.9516Ar; P5=1bar, T5=939-2109K

KMH2013

H2_ign_031

0.0081H2/0.0403O2/0.9516Ar; P5=4bar, T5=935-1360K

KMH2013

H2_ign_032

0.0081H2/0.0403O2/0.9516Ar; P5=16bar, T5=1037-1255K

KMH2013

H2_ign_033

0.0347H2/0.0347O2/0.9306N2; P5=1bar, T5=932-1954K

KMH2013

H2_ign_034

0.0347H2/0.0347O2/0.9306N2; P5=4bar, T5=1006-1257K

KMH2013

H2_ign_035

0.0347H2/0.0347O2/0.9306N2; P5=16bar, T5=1060-1243K

KMH2013

H2_ign_036

0.1254H2/0.0157O2/0.8589Ar; P5=1bar, T5=943-2136K

KMH2013

H2_ign_037

0.1254H2/0.0157O2/0.8589Ar; P5=4bar, T5=967-1463K

KMH2013

H2_ign_038

0.1254H2/0.0157O2/0.8589Ar; P5=16bar, T5=947-1227K

KMH2013

H2_ign_039

0.0075H2/0.0125O2/0.98Ar; P5=1.7atm, T5=974-1528K

KMH2013

H2_ign_040

0.0075H2/0.0125O2/0.98Ar; P5=13.4atm, T5=1098-1246K

KMH2013

H2_ign_041

0.0075H2/0.0125O2/0.98Ar; P5=32.7atm, T5=1155-1227K

KMH2013

H2_ign_042

0.01H2/0.01O2/0.98Ar; P5=1.6atm, T5=966-1623K

KMH2013

H2_ign_043

0.01H2/0.01O2/0.98Ar; P5=13.3atm, T5=1089-1241K

KMH2013

H2_ign_044

0.01H2/0.01O2/0.98Ar; P5=33atm, T5=1164-1267K

KMH2013

H2_ign_045

0.0133H2/0.0067O2/0.98Ar; P5=1.7atm, T5=1037-1739K

KMH2013

H2_ign_046

0.0133H2/0.0067O2/0.98Ar; P5=13.8atm, T5=1105-1207K

KMH2013

H2_ign_047

0.0133H2/0.0067O2/0.98Ar; P5=33.8atm, T5=1144-1259K

KMH2013

H2_ign_048

0.034603H2/0.034900O2/0.930497Ar; P5=16atm, T5=1018-1121K

HN2009

H2_ign_049

0.034603H2/0.034900O2/0.930497Ar; P5=4atm, T5=958-1035K

HN2009

H2_ign_050

0.034603H2/0.034900O2/0.930497Ar; P5=1atm, T5=923-1027K

HN2009

H2_ign_051

0.058683H2/0.029470O2/0.911847Ar; P5=16atm, T5=1015-1238K

HN2009

H2_ign_052

0.058683H2/0.029470O2/0.911847Ar; P5=4atm, T5=962-1160K

HN2009

H2_ign_053

0.058683H2/0.029470O2/0.911847Ar; P5=1atm, T5=918-1718K

HN2009

CO_fls_001

0.99CO/0.01H2/air; T=298K, P=1atm, φ=0.8-4.2

SYJ2007

CO_fls_003

0.9CO/0.1H2/air; T=298K, P=1atm, φ=0.4-5

BCG2011

CO_fls_004

0.75CO/0.25H2/air; T=298K, P=1atm, φ=0.4-5

BCG2011, SNT2012, SYJ2007

CO_fls_006

0.25CO/0.75H2/air; T=298K, P=1atm, φ=0.6-3

SNT2012

CO_fls_007

0.05CO/0.95H2/air; T=300K, P=1atm, φ=0.6-0.95

NNL2005

CO_fls_008

X%CO/(100-X)%H2/air; T=298K, P=1atm, φ=1, H2 mole fraction in fuel=1-100%

MST1994

CO_fls_009

X%CO/(20-X)%H2/air; T=298K, P=1atm, H2 Mole Fraction=0.2-5.75%

VE1994

CO_fls_011

X%CO/(14-X)%H2/air; T=298K, P=1atm, H2 Mole Fraction=1.7-4.2%

VE1994

CO_fls_012

CO/H2/air; T=293K, P=1atm, φF=0.7, RH=0.005-0.5

WKT2011

CO_fls_013

CO/H2/air; T=293K, P=1atm, φF=1, RH=0.0039-0.5

WKT2011

CO_fls_014

CO/H2/air; T=293K, P=1atm, φF=1.6, RH=0.005-0.5

WKT2011

CO_fls_015

CO/H2/0.125O2/0.875He; T=293K, P=20atm, φF=1, RH=0.005-0.5

WKT2011

CO_fls_016

0.5CO/0.5H2/air; T=700K, P=1atm, φ=0.6-0.9

NLS2007

CO_fls_017

0.5CO/0.5H2/air; T=600K, P=1atm, φ=0.6-0.95

NLS2007

CO_fls_018

0.5CO/0.5H2/air; T=500K, P=1atm, φ=0.6-3

NLS2007, SNT2012

CO_fls_019

0.5CO/0.5H2/air; T=400K, P=1atm, φ=0.6-3

NLS2007, SNT2012

CO_fls_020

0.95CO/0.05H2/air; T=700K, P=1atm, φ=0.5-0.8

NLS2007

CO_fls_021

0.95CO/0.05H2/air; T=600K, P=1atm, φ=0.55-0.9

NLS2007

CO_fls_022

0.95CO/0.05H2/air; T=500K, P=1atm, φ=0.6-0.9

NLS2007

CO_fls_023

0.95CO/0.05H2/air; T=400K, P=1atm, φ=0.6-1

NLS2007

CO_fls_024

0.5CO/0.5H2/air; T=298K, P=2atm, φ=0.6-4

SYJ2007

CO_fls_025

0.75CO/0.25H2/air; T=298K, P=2atm, φ=0.6-4.5

SYJ2007

CO_fls_026

0.95CO/0.05H2/air; T=298K, P=2atm, φ=0.6-4.5

SYJ2007

CO_fls_027

0.855CO/0.045H2/0.1CO2/air; T=300K, P=1atm, φ=0.69721-1.0221

NLS2007

CO_fls_028

0.45CO/0.45H2/0.1CO2/air; T=300K, P=1atm, φ=0.58863-1.0271

NNL2005

CO_fls_029

0.4CO/0.4H2/0.2CO2/air; T=300K, P=1atm, φ=0.6195-1.0107

NNL2005

CO_fls_030

0.045CO/0.855H2/0.1CO2/air; T=300K, P=1atm, φ=0.58449-1.056

NNL2005

CO_fls_031

0.04CO/0.76H2/0.2CO2/air; T=300K, P=1atm, φ=0.61009-1.0259

NNL2005

CO_fls_032

0.04CO/0.76H2/0.2CO2/air; T=600K, P=1atm, φ=0.44595-0.75191

NLS2007

CO_fls_033

0.04CO/0.76H2/0.2CO2/air; T=500K, P=1atm, φ=0.48575-0.92251

NLS2007

CO_fls_034

0.04CO/0.76H2/0.2CO2/air; T=400K, P=1atm, φ=0.54466-0.98543

NLS2007

CO_fls_035

0.04CO/0.76H2/0.2CO2/air; T=300K, P=1atm, φ=0.61042-1.0263

NLS2007

CO_fls_036

0.5CO/0.5H2/O2/He;O2/He=1:7, T=300K, P=10atm, φ=0.6-1.2

NKL2009

CO_fls_037

0.5CO/0.5H2/O2/He;O2/He=1:7, T=298K, P=5atm, φ=0.8-3.5

SYJ2007

CO_fls_038

0.5CO/0.5H2/O2/He;O2/He=1:7, T=298K, P=10atm, φ=0.6-4

SYJ2007

CO_fls_039

0.75CO/0.25H2/O2/He;O2/He=1:7, T=298K, P=5atm, φ=0.8-3.5

SYJ2007

CO_fls_040

0.75CO/0.25H2/O2/He;O2/He=1:7, T=298K, P=10atm, φ=0.6-4

BQJ2007, SYJ2007

CO_fls_041

0.75CO/0.25H2/O2/He;O2/He=1:7, T=298K, P=20atm, φ=0.8-3.5

BQJ2007, SYJ2007

CO_fls_042

0.95CO/0.05H2/O2/He;O2/He=1:7, T=298K, P=5atm, φ=1.2-3.5

SYJ2007

CO_fls_043

0.95CO/0.05H2/O2/He;O2/He=1:7, T=298K, P=10atm, φ=0.8-3.5

SYJ2007

CO_fls_044

0.95CO/0.05H2/O2/He;O2/He=1:7, T=298K, P=20atm, φ=1-3.5

SYJ2007

CO_fls_046

CO/H2/O2/He;O2/He=1:9, φ=0.6, T=600K, P=15atm, H2 mole fraction in fuel=20-80%

NKL2009

CO_fls_047

CO/H2/O2/He;O2/He=1:9, φ=0.8, T=300K, P=15atm, H2 mole fraction in fuel=30-80%

NKL2009

CO_fls_048

CO/H2/O2/He;O2/He=1:9, φ=0.75, T=600K, P=15atm, H2 mole fraction in fuel=50-90%

NKL2009

CO_fls_051

CO/H2/O2/Ar; φ=2.5, T=295K, P=1atm, Tad=1600K, CO fraction in fuel=0-0.9

BCD2010

CO_fls_052

CO/H2/O2/Ar; φ=2.5, T=295K, P=5atm, Tad=1600K, CO fraction in fuel=0-0.9

BCD2010

CO_fls_053

CO/H2/O2/Ar; φ=2.5, T=295K, P=10atm, Tad=1600K, CO fraction in fuel=0-0.9

BCD2010

CO_fls_054

CO/H2/O2/Ar; φ=2.5, T=295K, P=20atm, Tad=1600K, CO fraction in fuel=0-0.9

BCD2010

CO_fls_055

0.95CO/0.05H2/H2O/air; T=400K, P=1atm, φ=1, H2O mole fraction in fuel=0-40%

SNT2012

CO_fls_056

0.5CO/0.5H2/H2O/air; T=400K, P=1atm, φ=1, H2O mole fraction in fuel=0-20%

SNT2012

CO_fls_057

0.5CO/0.5H2/H2O/O2/He;O2/He=1:7, H2O Mole fraction in fuel=0.15, T=423K, P=1atm, φΩ=0.7-2.14

KVR2012

CO_fls_058

0.95CO/0.05H2/H2O/O2/He;O2/He=1:7, H2O Mole fraction in fuel=0.075, T=323K, P=1atm, φΩ=0.75-1.7

KVR2012

CO_fls_059

0.95CO/0.05H2/H2O/air; φ=0.9, T=323K, P=1atm, H2O mole fraction in fuel=0-32%

DKS2011

CO_fls_060

0.95CO/0.05H2/H2O/air; φ=0.8, T=323K, P=1atm, H2O mole fraction in fuel=0-34%

DKS2011

CO_fls_061

0.95CO/0.05H2/H2O/air; φ=0.7, T=323K, P=1atm, H2O mole fraction in fuel=0-35%

DKS2011

CO_fls_062

0.95CO/0.05H2/H2O/air; φ=0.6, T=323K, P=1atm, H2O mole fraction in fuel=0-35%

DKS2011

CO_fls_063

0.5CO/0.5H2/H2O/air; φ=0.6, T=323K, P=1atm, H2O mole fraction in fuel=0-35%

DKS2011

CO_fls_064

0.5CO/0.5H2/H2O/air; φ=0.5, T=323K, P=1atm, H2O mole fraction in fuel=0-35%

DKS2011

CO_fls_065

0.5CO/0.5H2/H2O/air; φ=0.4, T=323K, P=1atm, H2O mole fraction in fuel=0-35%

DKS2011

CO_fls_066

0.9CO/0.1H2/H2O/air; φ=0.6, T=323K, P=1atm, H2O mole fraction in fuel=0-35%

DKS2011

CO_fls_067

0.85CO/0.15H2/H2O/air; φ=0.6, T=323K, P=1atm, H2O mole fraction in fuel=0-35%

DKS2011

CO_fls_068

0.8CO/0.2H2/H2O/air; φ=0.6, T=323K, P=1atm, H2O mole fraction in fuel=0-35%

DKS2011

CO_ign_001

0.1158CO/0.0891H2/0.1025O2/0.4482N2/0.2444CO2; P5=1.24±0.15atm, T5=974-1160K

VDH2011

CO_ign_002

0.1158CO/0.0891H2/0.1025O2/0.4482N2/0.2444CO2; P5=1.7±0.2atm, T5=975-1145K

VDH2011

CO_ign_003

0.1158CO/0.0891H2/0.1025O2/0.4482N2/0.2444CO2; P5=2.3±0.6atm, T5=1017-1091K

VDH2011

CO_ign_004

0.0971CO/0.0733H2/0.1701O2/0.6397N2/0.0198CO2; P5=22.5±8atm, T5=943-1148K

PKB2007

CO_ign_005

0.0328CO/0.00049H2/0.0101O2/0.95661Ar; P5=1.6±0.5atm, T5=2050-2810K

DSW1978

CO_ign_007

0.0052CO/0.0298H2/0.0351O2/0.4657N2/0.4642Ar; P5=16bar, T5=1002-1222K

KMH2013

CO_ign_008

0.0174CO/0.0174H2/0.0347O2/0.9306Ar; P5=16bar, T5=1007-1249K

KMH2013

CO_ign_009

0.0174CO/0.0174H2/0.0347O2/0.9306Ar; P5=4bar, T5=970-1418K

KMH2013

CO_ign_010

0.0174CO/0.0174H2/0.0347O2/0.9306Ar; P5=1bar, T5=882-2031K

KMH2013

CO_ign_011

0.0174CO/0.0174H2/0.0352O2/0.4732N2/0.4568Ar; P5=16bar, T5=1020-1217K

KMH2013

CO_ign_012

0.0296CO/0.0296H2/0.0296O2/0.9112Ar; P5=16bar, T5=997-1215K

KMH2013

CO_ign_013

0.0296CO/0.0296H2/0.0296O2/0.9112Ar; P5=4bar, T5=942-1364K

KMH2013

CO_ign_014

0.0296CO/0.0296H2/0.0296O2/0.9112Ar; P5=1bar, T5=924-2220K

KMH2013

CO_ign_015

0.033CO/0.0017H2/0.0347O2/0.9306Ar; P5=16bar, T5=1156-1470K

KMH2013

CO_ign_016

0.033CO/0.0017H2/0.0347O2/0.9306Ar; P5=1bar, T5=1042-1824K

KMH2013

CO_ign_017

0.033CO/0.0017H2/0.0347O2/0.9306Ar; P5=1bar, T5=943-2246K

KMH2013

CO_ign_018

0.0562CO/0.003H2/0.0296O2/0.9112Ar; P5=14.6bar, T5=1040-1438K

KMH2013

CO_ign_019

0.0562CO/0.003H2/0.0296O2/0.9112Ar; P5=3.7bar, T5=991-1934K

KMH2013

CO_ign_020

0.0562CO/0.003H2/0.0296O2/0.9112Ar; P5=1bar, T5=957-2374K

KMH2013

CH4_fls_003

CH4/air; T=300K, P=4atm, φ=0.65-1.3

HAF1998, PVL2011

CH4_fls_004

CH4/air; T=300K, P=0.25atm, φ=0.7-1.4

ECL1989

CH4_fls_005

CH4/air; T=300K, P=0.5atm, φ=0.6-1.5

ECL1989, HAF1998

CH4_fls_007

CH4/air; T=300K, P=3atm, φ=0.6-1.4

ECL1989, HAF1998

CH4_fls_010

CH4/air; T=343K, P=1atm, φ=0.7-1.4

VWE2010

CH4_fls_020

CH4/0.21O2/0.79Ar; T=300K, P=1atm, φ=0.4-1.8

ZEL1989

CH4_fls_022

CH4/0.17O2/0.83He; T=300K, P=10atm, φ=0.8-1.2

RZL2002

CH4_fls_023

CH4/0.17O2/0.83He; T=300K, P=20atm, φ=0.8-1.4

RZL2002

CH4_ign_002

0.005CH4/0.1O2/0.895Ar; P5=1.9±0.8atm, T5=1538-1852K

YWF1995

CH4_ign_003

0.004CH4/0.05O2/0.946Ar; P5=1.9±0.8atm, T5=1687-2012K

YWF1995

CH4_ign_004

0.01CH4/0.03O2/0.96Ar; P5=2±0.75atm, T5=1680-1856K

YWF1995

CH4_ign_007

0.048CH4/0.191O2/0.761Ar; P5=1.6atm, T5=1347-1594K

SB1970

CH4_ign_009

0.01CH4/0.02O2/0.97Ar; P5=10atm, T5=1718-2020K

LSB1971

CH4_ign_010

0.035CH4/0.07O2/0.895Ar; P5=3atm, T5=1600-2145K

LSB1971

CH4_ign_011

0.035CH4/0.07O2/0.895Ar; P5=11atm, T5=1524-1869K

LSB1971

CH4_ign_012

0.0212CH4/0.0212O2/0.9576Ar; P5=9atm, T5=1680-2109K

LSB1971

CH4_ign_013

0.02CH4/0.08O2/0.9Ar; P5=9atm, T5=1608-1886K

LSB1971

CH4_ign_014

0.067CH4/0.067O2/0.866Ar; P5=12atm, T5=1605-1919K

LSB1971

CH4_ign_015

0.035CH4/0.07O2/0.00073H2/0.89427Ar; P5=11atm, T5=1639-1811K

LSB1971

CH4_ign_016

0.035CH4/0.07O2/0.0019H2/0.8931Ar; P5=10atm, T5=1605-1739K

LSB1971

CH4_ign_017

0.01CH4/0.01O2/0.98Ar; P5=3.2±0.6atm, T5=1841-2227K

HSH1999

CH4_ign_018

0.01CH4/0.02O2/0.97Ar; P5=2.8±0.6atm, T5=1669-2145K

HSH1999

CH4_ign_019

0.01CH4/0.04O2/0.95Ar; P5=2.7±0.5atm, T5=1675-2012K

HSH1999

CH4_ign_020

0.002CH4/0.002O2/0.996Ar; P5=3.3±0.6atm, T5=1923-2358K

HSH1999

CH4_ign_021

0.002CH4/0.008O2/0.99Ar; P5=3±0.6atm, T5=1769-2164K

HSH1999

CH4_ign_022

0.001CH4/0.01O2/0.01H2/0.979Ar; P5=2.16±0.65atm, T5=1338-1769K

HSH1999

CH4_ign_023

0.004CH4/0.01O2/0.01H2/0.976Ar; P5=2.4±0.6atm, T5=1457-1869K

HSH1999

CH4_ign_024

0.095CH4/0.192O2/0.713Ar; P5=21±9.7atm, T5=1032-1348K

HHB2004

CH4_ign_025

0.095CH4/0.192O2/0.713Ar; P5=37±8.3atm, T5=1024-1295K

HHB2004

CH4_ign_026

0.068CH4/0.196O2/0.736Ar; P5=16±1.45atm, T5=1143-1304K

HHB2004

CH4_ign_027

0.068CH4/0.196O2/0.736Ar; P5=35±8atm, T5=1004-1370K

HHB2004

CH4_ign_028

0.12CH4/0.185O2/0.695Ar; P5=38±2.5atm, T5=1068-1290K

HHB2004

CH4_ign_032

0.038CH4/0.192O2/0.77Ar; P5=48±5atm, T5=1203-1359K

PDH1999

CH4_ign_033

0.038CH4/0.192O2/0.77Ar; P5=97±5atm, T5=1137-1361K

PDH1999

CH4_ign_034

0.038CH4/0.192O2/0.77Ar; P5=156±15atm, T5=1198-1250K

PDH1999

CH4_ign_035

0.2CH4/0.133O2/0.667Ar; P5=39±10atm, T5=1325-1536K

PDH1999

CH4_ign_036

0.2CH4/0.133O2/0.667Ar; P5=86±13atm, T5=1167-1418K

PDH1999

CH4_ign_037

0.2CH4/0.133O2/0.667Ar; P5=115±21atm, T5=1156-1380K

PDH1999

CH4_ign_038

0.2CH4/0.133O2/0.667Ar; P5=168±17atm, T5=1209-1372K

PDH1999

CH4_ign_039

0.2CH4/0.133O2/0.667Ar; P5=261±8atm, T5=1176-1301K

PDH1999

CH4_ign_040

0.273CH4/0.182O2/0.545Ar; P5=48±7atm, T5=1191-1362K

PDH1999

CH4_ign_041

0.273CH4/0.182O2/0.545Ar; P5=65±11atm, T5=1215-1346K

PDH1999

CH4_ign_042

0.273CH4/0.182O2/0.545Ar; P5=127±3.5atm, T5=1089-1156K

PDH1999

CH4_ign_043

0.2CH4/0.133O2/0.667N2; P5=42±7atm, T5=1358-1511K

PDH1999

CH4_ign_044

0.2CH4/0.133O2/0.667N2; P5=75±3.7atm, T5=1290-1466K

PDH1999

CH4_ign_045

0.2CH4/0.133O2/0.667N2; P5=86.5±6.5atm, T5=1227-1437K

PDH1999

CH4_ign_046

0.2CH4/0.133O2/0.667N2; P5=113±13atm, T5=1149-1323K

PDH1999

CH4_ign_047

0.2CH4/0.133O2/0.667N2; P5=142±12atm, T5=1186-1317K

PDH1999

CH4_ign_048

0.273CH4/0.182O2/0.545N2; P5=56±5.6atm, T5=1196-1371K

PDH1999

CH4_ign_049

0.273CH4/0.182O2/0.545N2; P5=85±5atm, T5=1242-1272K

PDH1999

CH4_ign_050

0.273CH4/0.182O2/0.545N2; P5=133±12atm, T5=1041-1327K

PDH1999

CH4_ign_051

0.273CH4/0.182O2/0.545N2; P5=182±22atm, T5=1150-1268K

PDH1999

CH4_ign_052

0.5CH4/0.167O2/0.333N2; P5=15.6±6.4atm, T5=1453-1607K

PDH1999

CH4_ign_053

0.5CH4/0.167O2/0.333N2; P5=66±23atm, T5=1324-1547K

PDH1999

CH4_ign_054

0.5CH4/0.167O2/0.333N2; P5=88±11atm, T5=1128-1290K

PDH1999

BCD2010

Burke MP, Chaos M, Dryer FL, Ju Y. Negative pressure dependence of mass burning rates of H2/CO/O2/diluent flames at low flame temperatures. Combust Flame. 2010;157:618-31.

BCG2011

Bouvet N, Chauveau C, Gökalp I, Halter F. Experimental studies of the fundamental flame speeds of syngas (H2/CO)/air mixtures. Proc Combust Inst. 2011;33:913-20.

BDJ2011

Burke MP, Dryer FL, Ju Y. Assessment of kinetic modeling for lean H2/CH4/O2/diluent flames at high pressures. Proc Combust Inst. 2011;33:905-12.

BG1973

Bhaskaran KA, Gupta MC, Just T. Shock tube study of the effect of unsymmetric dimethyl hydrazine on the ignition characteristics of hydrogen-air mixtures. Combust Flame. 1973;21:45-8.

BLL2007

Bradley D, Lawes M, Liu K, Verhelst S, Woolley R. Laminar burning velocities of lean hydrogen–air mixtures at pressures up to 1.0 MPa. Combust Flame. 2007;149:162-72.

BQJ2007

Burke MP, Qin X, Ju Y, Dryer FL. Measurements of hydrogen syngas flame speeds at elevated pressures.  5th US Combustion Meeting; March 25-27, 2007; San Diego, California.

CRR1966

Craig RR. A shock tube study of the ignition delay of hydrogen-air mixtures near the second explosion limit. Wright-Patterson (OH): Air Force Aeropropulsion Lab; 1966. Report No. AFAPL-TR-66-74.

DKS2011

Das AK, Kumar K, Sung C-J. Laminar flame speeds of moist syngas mixtures. Combust Flame. 2011;158:345-53.

DSW1978

Dean AM, Steiner DC, Wang EE. A shock tube study of the H2/O2/CO/Ar and H2/N2O/CO/Ar systems: Measurement of the rate constant for H+ N2O= N2+ OH. Combust Flame. 1978;32:73-83.

ECL1989

Egolfopoulos FN, Cho P, Law CK. Laminar flame speeds of methane-air mixtures under reduced and elevated pressures. Combust Flame. 1989;76:375-91.

HAF1998

Hassan MI, Aung KT, Faeth GM. Measured and predicted properties of laminar premixed methane/air flames at various pressures. Combust Flame. 1998;115:539-50.

HHB2004

Huang J, Hill PG, Bushe WK, Munshi SR. Shock-tube study of methane ignition under engine-relevant conditions: experiments and modeling. Combust Flame. 2004;136:25-42.

HKB2007

Hermanns RTE, Konnov AA, Bastiaans RJM, De Goey LPH. Laminar burning velocities of diluted hydrogen-oxygen-nitrogen mixtures. Energy Fuels. 2007;21:1977-81.

HN2009

Herzler J, Naumann C. Shock-tube study of the ignition of methane/ethane/hydrogen mixtures with hydrogen contents from 0% to 100% at different pressures. Proc Combust Inst. 2009;32:213-20.

HSH1999

Hidaka Y, Sato K, Henmi Y, Tanaka H, Inami K. Shock-tube and modeling study of methane pyrolysis and oxidation. Combust Flame. 1999;118:340-58.

JS1968

Schmalz F, Just T. Measurements of ignition delays of hydrogen-air-mixtures under simulated conditions of supersonic combustion chambers. AGARD Advan Components for Turbojet Eng, Pt. 1968;2.

KF2001

Kwon OC, Faeth GM. Flame/stretch interactions of premixed hydrogen-fueled flames: measurements and predictions. Combust Flame. 2001;124:590-610.

KMH2013

Kéromnès A, Metcalfe WK, Heufer KA, Donohoe N, Das AK, Sung C-J, Herzler J, Naumann C, Griebel P, Mathieu O. An experimental and detailed chemical kinetic modeling study of hydrogen and syngas mixture oxidation at elevated pressures. Combust Flame. 2013;160:995-1011.

KVR2012

Krejci MC, Vissotski AJ, Ravi S, Metcalfe WJ, Kéromnès A, Curran HJ, Petersen EL. Laminar flame speed measurements of moist syngas fuel blends at elevated pressures and temperatures.  Spring technical meeting of the central states section of the combustion institute, 2012.

LSB1971

Lifshitz A, Scheller K, Burcat A, Skinner GB. Shock-tube investigation of ignition in methane-oxygen-argon mixtures. Combust Flame. 1971;16:311-21.

MST1994

McLean IC, Smith DB, Taylor SC. The use of carbon monoxide/hydrogen burning velocities to examine the rate of the CO+ OH reaction. Symp (Int) Combust. 1994;25:749-57.

NKL2009

Natarajan J, Kochar Y, Lieuwen T, Seitzman J. Pressure and preheat dependence of laminar flame speeds of H2/CO/CO2/O2/He mixtures. Proc Combust Inst. 2009;32:1261-8.

NLS2007

Natarajan J, Lieuwen T, Seitzman J. Laminar flame speeds of H2/CO mixtures: effect of CO2 dilution, preheat temperature, and pressure. Combust Flame. 2007;151:104-19.

NNL2005

Natarajan J, Nandula S, Lieuwen T, Seitzman J. Laminar flame speeds of synthetic gas fuel mixtures.  ASME Turbo Expo 2005: Power for Land, Sea, and Air: American Society of Mechanical Engineers; 2005. p. 677-86.

PDH1999

Petersen EL, Davidson DF, Hanson RK. Kinetics modeling of shock-induced ignition in low-dilution CH4/O2 mixtures at high pressures and intermediate temperatures. Combust Flame. 1999;117:272-90.

PDH2009

Pang GA, Davidson DF, Hanson RK. Experimental study and modeling of shock tube ignition delay times for hydrogen–oxygen–argon mixtures at low temperatures. Proc Combust Inst. 2009;32:181-8.

PDR1996

Petersen EL, Davidson DF, Röhrig M, Hanson R. High-pressure shock-tube measurements of ignition times in stoichiometric H2/O2/AR mixtures. In: Sturtevant B, Shepherd JE, Hornung HG, editors. Proceedings of the 20th international symposium on shock waves; 1996; Pasadena, California. p. 941-6.

PKB2007

Petersen EL, Kalitan DM, Barrett AB, Reehal SC, Mertens JD, Beerer DJ, Hack RL, McDonell VG. New syngas/air ignition data at lower temperature and elevated pressure and comparison to current kinetics models. Combust Flame. 2007;149:244-7.

PVL2011

Park O, Veloo PS, Liu N, Egolfopoulos FN. Combustion characteristics of alternative gaseous fuels. Proc Combust Inst. 2011;33:887-94.

QGD2007

Qiao L, Gu Y, Dahm WJA, Oran ES, Faeth GM. A study of the effects of diluents on near-limit H2–air flames in microgravity at normal and reduced pressures. Combust Flame. 2007;151:196-208.

RZL2002

Rozenchan G, Zhu DL, Law CK, Tse SD. Outward propagation, burning velocities, and chemical effects of methane flames up to 60 atm. Proc Combust Inst. 2002;29:1461-70.

SB1970

Seery DJ, Bowman CT. An experimental and analytical study of methane oxidation behind shock waves. Combust Flame. 1970;14:37-47.

SM1977

Slack MW. Rate coefficient for H+ O2+ M= HO2+ M evaluated from shock tube measurements of induction times. Combust Flame. 1977;28:241-9.

SNT2012

Singh D, Nishiie T, Tanvir S, Qiao L. An experimental and kinetic study of syngas/air combustion at elevated temperatures and the effect of water addition. Fuel. 2012;94:448-56.

SRZ1965

Snyder AD, Robertson J, Zanders DL, Skinner GB. Shock tube studies of fuel-air ignition characteristics. Wright-Patterson (OH): Air Force Aeropropulsion Lab; 1965. Report No. AFAPL-TR-65-93.

SYJ2007

Sun H, Yang SI, Jomaas G, Law CK. High-pressure laminar flame speeds and kinetic modeling of carbon monoxide/hydrogen combustion. Proc Combust Inst. 2007;31:439-46.

TZL2000

Tse SD, Zhu DL, Law CK. Morphology and burning rates of expanding spherical flames in H2/O2/inert mixtures up to 60 atmospheres. Proc Combust Inst. 2000;28:1793-800.

VDH2011

Vasu SS, Davidson DF, Hanson RK. Shock tube study of syngas ignition in rich CO2 mixtures and determination of the rate of H+ O2+ CO2→ HO2+ CO2. Energy Fuels. 2011;25:990-7.

VE1994

Vagelopoulos CM, Egolfopoulos FN. Laminar flame speeds and extinction strain rates of mixtures of carbon monoxide with hydrogen, methane, and air. Symp (Int) Combust. 1994;25:1317-23.

VWE2010

Veloo PS, Wang YL, Egolfopoulos FN, Westbrook CK. A comparative experimental and computational study of methanol, ethanol, and n-butanol flames. Combust Flame. 2010;157:1989-2004.

WKT2011

Wu F, Kelley AP, Tang C, Zhu D, Law CK. Measurement and correlation of laminar flame speeds of CO and C2 hydrocarbons with hydrogen addition at atmospheric and elevated pressures. Int J Hydrogen Energy. 2011;36:13171-80.

YWF1995

Yu C-L, Wang C, Frenklach M. Chemical kinetics of methyl oxidation by molecular oxygen. J Phys Chem. 1995;99:14377-87.

ZEL1989

Zhu DL, Egolfopoulos FN, Law CK. Experimental and numerical determination of laminar flame speeds of methane/(Ar, N2, CO2)-air mixtures as function of stoichiometry, pressure, and flame temperature. Symp (Int) Combust. 1989;22:1537-45.