參考文獻 |
[1] K.F. Yee, A.R. Mohamed, S.H. Tan, A review on the evolution of ethyl tert-butyl ether
(ETBE) and its future prospects, Renewable Sustainable Energy Rev. 22 (2013) 604-
620.
[2] L. Jamison, August 2020 Monthly Energy Review, Report No. DOE/EIA‐0035(2020/8)
U.S Energy Information Administration, Washington, USA, 2020.
[3] U.S Department of Energy, Alternative Fuels Data Center, Renewable Fuel Standard.
(https://afdc.energy.gov/laws/RFS.html)
[4] G.B. Machado, J.E.M. Barros, S.L. Braga, C.V.M. Braga, E.J. de Oliveira, A.H.M.d.F.T.
da Silva, L.d.O. Carvalho, Investigations on surrogate fuels for high-octane oxygenated
gasolines, Fuel 90 (2011) 640-646.
[5] M. Waqas, N. Naser, M. Sarathy, K. Morganti, K. Al-Qurashi, B. Johansson, Blending
octane number of ethanol in HCCI, SI and CI combustion modes, SAE Int. J. Fuels
Lubr. 9 (2016) 659-682.
[6] S.M. Sarathy, A. Farooq, G.T. Kalghatgi, Recent progress in gasoline surrogate fuels,
Prog. Energy Combust. Sci. 65 (2018) 67-108.
[7] O.A. Mannaa, M.S. Mansour, W.L. Roberts, S.H. Chung, Influence of ethanol and
exhaust gas recirculation on laminar burning behaviors of fuels for advanced
combustion engines (FACE-C) gasoline and its surrogate, Energy Fuels 31 (2017)
14104−14115.
[8] O. Mannaa, Laminar burning velocities at elevated pressures for gasoline and gasoline
surrogates associated with RON, Combust. Flame 162 (2015) 2311-2321.
[9] O. Mannaa, P. Brequigny, C. Mounaim-Rousselle, F. Foucher, S.H. Chung, W.L.
Roberts, Turbulent burning characteristics of FACE-C gasoline and TPRF blend
associated with the same RON at elevated pressures, Exp. Therm Fluid Sci. 95 (2018)
104-114.
[10] L. Sileghem, V.A. Alekseev, J. Vancoillie, K.M. Van Geem, E.J.K. Nilsson, S. Verhelst,
A.A. Konnov, Laminar burning velocity of gasoline and the gasoline surrogate
components iso-octane, n-heptane and toluene, Fuel 112 (2013) 355-365.
[11] Y.H. Liao, W.L. Roberts, Laminar flame speeds of gasoline surrogates measured with
the flat flame method, Energy Fuels 30 (2016) 1317−1324.70
[12] O. Mannaa, Laminar burning velocities of fuels for advanced combustion engines
(FACE) gasoline and gasoline surrogates with and without ethanol blending associated
with octane rating, Combust. Sci. Technol. 188 (2016) 692-706.
[13] J.A. Piehl, A. Zyada, L. Bravo, O. Samimi-Abianeh, Review of oxidation of gasoline
surrogates and its components, J. Combust. 2018 (2018) 1-27.
[14] P. Dirrenberger, P.A. Glaude, R. Bounaceur, H. Le Gall, A.P. da Cruz, A.A. Konnov,
F. Battin-Leclerc, Laminar burning velocity of gasolines with addition of ethanol, Fuel
115 (2014) 162-169.
[15] D. Bradley, M. Lawes, M.S. Mansour, Correlation of turbulent burning velocities of
ethanol–air, measured in a fan-stirred bomb up to 1.2MPa, Combust. Flame 158 (2011)
123-138.
[16] H. Kobayashi, Y. Kawabata, K. Maruta, Experimental study on general correlation of
turbulent burning velocity at high pressure, Symp. (Int.) Combust. 27 (1998) 941-948.
[17] S. Chaudhuri, V. Akkerman, C.K. Law, Spectral formulation of turbulent flame speed
with consideration of hydrodynamic instability, Phys. Rev. E: Stat., Nonlinear, Soft
Matter Phys. 84 (2011) 026322 (1-14).
[18] X. Cai, J. Wang, Z. Bian, H. Zhao, M. Zhang, Z. Huang, Self-similar propagation and
turbulent burning velocity of CH4/H2/air expanding flames: Effect of Lewis number,
Combust. Flame 212 (2020) 1-12.
[19] C.C. Liu, S.S. Shy, M.W. Peng, C.W. Chiu, Y.C. Dong, High-pressure burning
velocities measurements for centrally-ignited premixed methane/air flames interacting
with intense near-isotropic turbulence at constant Reynolds numbers, Combust. Flame
159 (2012) 2608-2619.
[20] M. Faghih, Z. Chen, The constant-volume propagating spherical flame method for
laminar flame speed measurement, Sci. Bull. 61 (2016) 1296-1310.
[21] J. Jayachandran, A. Lefebvre, R. Zhao, F. Halter, E. Varea, B. Renou, F.N.
Egolfopoulos, A study of propagation of spherically expanding and counterflow laminar
flames using direct measurements and numerical simulations, Proc. Combust. Inst. 35
(2015) 695-702.
[22] C. Xiouris, T. Ye, J. Jayachandran, F.N. Egolfopoulos, Laminar flame speeds under
engine-relevant conditions: Uncertainty quantification and minimization in spherically
expanding flame experiments, Combust. Flame 163 (2016) 270-283.
[23] M.T. Nguyen, D. Yu, C. Chen, S. Shy, General correlations of iso-octane turbulent
burning velocities relevant to spark ignition engines, Energies 12 (2019) 1848-1860.71
[24] L.J. Jiang, S.S. Shy, W.Y. Li, H.M. Huang, M.T. Nguyen, High-temperature, highpressure burning velocities of expanding turbulent premixed flames and their
comparison with Bunsen-type flames, Combust. Flame 172 (2016) 173-182.
[25] D. Bradley, P.H. Gaskell, X.J. Gu, Burning velocities, Markstein lengths, and flame
quenching for spherical methane-air flame: a computational study, Combust. Flame
104 (1996) 176-198.
[26] G. Tian, R. Daniel, H. Li, H. Xu, S. Shuai, P. Richards, Laminar burning velocities
of 2,5-dimethylfuran compared with ethanol and gasoline, Energy Fuels 24 (2010)
3898-3905.
[27] D. Bradley, R.A. Hick, M. Lawes, C.G.W. Sheppard, R. Woolley, The measurement
of laminar burning velocities and Markstein numbers for iso-octane–air and iso-octane–
n-heptane–air mixtures at elevated temperatures and pressures in an explosion bomb,
Combust. Flame 115 (1998) 126-144.
[28] D. Bradley, T.M. Cresswell, J.S. Puttock, Flame acceleration due to flame-induced
instabilities in large-scale explosions, Combust. Flame 124 (2001) 551-559.
[29] M. Metghalchi, J.C. Keck, Burning velocity of mixtures of air with methanol,
isooctane, and indolene at high pressure and temperature, Combust. Flame 48 (1982)
191-210.
[30] A.S. Huzayyin, H.A. Moneib, M.S. Shehatta, A.M.A. Attia, Laminar burning velocity
and explosion index of LPG–air and propane–air mixtures, Fuel 87 (2008) 39-57.
[31] Z. Chen, M.P. Burke, Y. Ju, Effects of Lewis number and ignition energy on the
determination of laminar flame speed using propagating spherical flames, Proc.
Combust. Inst. 32 (2009) 1253-1260.
[32] M.P. Burke, Z. Chen, Y. Ju, F.L. Dryer, Effect of cylindrical confinement on the
determination of laminar flame speeds using outwardly propagating flames, Combust.
Flame 156 (2009) 771-779.
[33] A.P. Kelley, C.K. Law, Nonlinear effects in the extraction of laminar flame speeds from
expanding spherical flames, Combust. Flame 156 (2009) 1844-1851.
[34] SC, Taylor, Burning velocity and the influence of flame stretch, PhD thesis, University
of Leeds, 1991. (http://etheses.whiterose.ac.uk/2099/)
[35] G.E. Andrews, D. Bradley, Determination of burning velocities: a critical review,
Combust. Flame 18 (1972) 133-153.
[36] C.K. Law, C.J. Sung, H. Wang, T.F. Lu, Development of comprehensive detailed and
reduced reaction mechanisms for combustion modeling, AIAA J. 41 (2003) 1629-1646.72
[37] C.K. Wu, C.K. Law, On the determination of laminar flame speeds from stretched
flames, Symp. (Int.) Combust. 20 (1984) 1941-1949.
[38] C.K. Law, C.J. Sung, Structure, aerodynamics, and geometry of premixed flamelets,
Prog. Energy Combust. Sci. 26 (2000) 459-505.
[39] M. Matalon, On flame stretch, Combust. Sci. Technol. 31 (1983) 169-181.
[40] 林彥廷, 高溫高壓汽油主要參考燃料層流和紊流燃燒速度量測與正規化分析,
國立中央大學機械工程研究所, 碩士論文 (2019).
[41] D.L. Zhu, F.N. Egolfopoulos, C.K. Law, Experimental and numerical determination of
laminar flame speed of methane/ (Ar; N2; CO2)-air mixtures as function of
stoichiometry, pressure, and flame temperature, Symp. (Int.) Combust. 22 (1988) 1537-
1545.
[42] D.R. Dowdy, D.B. Smith, S.C. Taylor, A. Williams, The use of expanding spherical
flames to determine burning velocities and stretch effects in hydrogen/air mixtures,
Symp. (Int.) Combust. 23 (1990) 325-332.
[43] G. Rozenchan, D.L. Zhu, C.K. Law, S.D. Tse, Outward propagation, burning velocities,
and chemical effects of methane flames up to 60 atm, Proc. Combust. Inst. 29 (2002)
1461-1469.
[44] A.P. Kelley, C.K. Law, Nonlinear effects in the experimental determination of laminar
flame properties from stretched flames, Chemical and physical processes in combustion
in Eastern states section of the combustion institute fall meeting (2007) 296-304.
[45] A.P. Kelley, G. Jomaas, C.K. Law, On the critical radius for sustained propagation of
spark-ignited spherical flames, 46th AIAA Aerospace Sciences Meeting and Exhibit
(2008), Paper No. 1054.
[46] A.P. Kelley, G. Jomaas, C.K. Law, Critical radius for sustained propagation of sparkignited spherical flames, Combust. Flame 156 (2009) 1006-1013.
[47] Z. Chen, On the accuracy of laminar flame speeds measured from outwardly
propagating spherical flames: Methane/air at normal temperature and pressure,
Combust. Flame 162 (2015) 2442-2453.
[48] A.N. Lipatnikov, W.Y. Li, L.J. Jiang, S.S. Shy, Does Density Ratio Significantly
Affect Turbulent Flame Speed?, Flow, Turbul. Combust. 98 (2017) 1153-1172.
[49] D. Bradley, M.Z. Haq, R.A. Hicks, T. Kitagawa, M. Lawes, C.G.W. Sheppard, R.
Woolley, Turbulent burning velocity, burned gas distribution, and associated flame
surface definition, Combust. Flame 133 (2003) 415-430.73
[50] H.J. Kim, K. Van, D.K. Lee, C.S. Yoo, J. Park, S.H. Chung, Laminar flame speed,
Markstein length, and cellular instability for spherically propagating methane/ethylene–
air premixed flames, Combust. Flame 214 (2020) 464-474.
[51] P. Clavin, Dynamic Behavior of Premixed Flame Fronts in Laminar and Turbulent
Flows, Prog. Energy Combust. Sci. 11 (1985) 1-59.
[52] S.Y. Liao, D.M. Jiang, Z.H. Huang, K. Zeng, Q. Cheng, Determination of the laminar
burning velocities for mixtures of ethanol and air at elevated temperatures, Appl. Therm.
Eng. 27 (2007) 374-380.
[53] Moghaddas A, Bennett C, Eisazadeh-Far K, Metghalchi H. Measurement of laminar
burning speeds and determination of onset of auto-ignition of jet-a/air and jet propellant-
8/air mixtures in a constant volume spherical, Chamber, J. Energy Resour. Technol. 134
(2012) 022205 (1-6).
[54] Beeckmann J, Röhl O, Peters N. Experimental and numerical investigation of isooctane, methanol and ethanol regarding laminar burning velocity at elevated pressure
and temperature, SAE Tech. Pap. Ser. 1774 (2009) 1-9.
[55] Farrell J, Johnston R, Androulakis I. Molecular structure effects on laminar burning
velocities at elevated temperature and pressure, SAE Tech. Pap. Ser. 1895 (2004) 1-22
[56] I. Glassman, R.A. Yetter, Combustion 3th ed., Academic Press, London, U.K., 2008
p.43.
[57] C.K. Law, Combustion Physics, Cambridge University Press, Cambridge, U.K., 2006
p.275.
[58] L. Sileghem, V.A. Alekseev, J. Vancoillie, K.M. Van Geem, E.J.K. Nilsson, S.
Verhelst, A.A. Konnov, Laminar burning velocity of gasoline and the gasoline
surrogate components iso-octane, n-heptane and toluene, Fuel 112 (2013) 355-365.
[59] G. Tian, R. Daniel, H. Li, H. Xu, S. Shuai, P. Richards, Laminar Burning Velocities
of 2,5-Dimethylfuran Compared with Ethanol and Gasoline, Energy Fuels 24 (2010)
3898-3905.
[60] M. Metghalchi, J.C. Keck, Burning velocity of mixtures of air with methanol,
isooctane, and indolene at high pressure and temperature, Combust. Flame 48 (1982)
191-210.
[61] S. Zhang, T.H. Lee, H. Wu, J. Pei, WeiWu, F. Liu, C. Zhang, Experimental and kinetic
studies on laminar flame characteristics of acetone-butanol-ethanol (ABE) and toluene
reference fuel (TRF) blends at atmospheric pressure, Fuel 232 (2018) 755-768.74
[62] B. Rotavera, M. Krejci, A. Vissotski, E.L. Petersen, Laminar flame speed
measurements of methyl octanoate, n-nonane, and methylcyclohexane, 51st AIAA
Aerospace Sciences Meeting including the New Horizons Forum and Aerospace
Exposition (2013), Paper No. 1166.
[63] X. Zhang, C. Tang, H. Yu, Q. Li, J. Gong, Z. Huang, Laminar flame characteristics
of iso-octane/n-butanol blend–air mixtures at elevated temperatures, Energy Fuels 27
(2013) 2327-2335.
[64] S.G. Davis, H. Wang, K. Breinsky, C.K. Law, Laminar flame speeds and oxidation
kinetics of benene-air and toluene-air flames, Symp. (Int.) Combust. 26 (1996) 1025-
1033.
[65] K. Kumar, C.J. Sung, Flame propagation and extinction characteristics of neat
surrogate fuel components, Energy Fuels 7 (2010) 3840-3849.
[66] l.Y.Huang, C.J.Sung, J.A.Eng, Laminar flame speeds of primary reference fuels and
reformer gas mixtures, Combust. Flame 139 (2004) 239-251.
[67] S.M. Sarathy, A. Farooq, G.T. Kalghatgi, Recent progress in gasoline surrogate fuels,
Prog. Energy Combust. Sci. 65 (2017) 1-42.
[68] Dagaut P, Togbé C. Experimental and modeling study of the kinetics of oxidation of
ethanol gasoline surrogate mixtures (E85 surrogate) in a jet stirred reactor. Energy Fuels
22 (2008) 3499-3505.
[69] A. Frassoldati, A. Cuoci, T. Faravelli, E. Ranzi, Kinetic modeling of the oxidation of
ethanol and gasoline surrogate mixtures, Combust. Sci. Technol. 182 (2010) 653-667.
[70] D. Bradley, M. Lawes, M.S. Mansour, Explosion bomb measurements of ethanol–air
laminar gaseous flame characteristics at pressures up to 1.4MPa, Combust. Flame 156
(2009) 1462-1470.
[71] C.C. Liu, Detailed influences of ethanol as fuel additive on combustion chemistry of
premixed fuel-rich ethylene flames, Sci. China: Technol. Sci. 58 (2015) 1696-1704.
[72] E. Singh, E.-A. Tingas, D. Goussis, H.G. Im, S.M. Sarathy, Chemical ignition
characteristics of ethanol blending with primary reference fuels, Energy Fuels 33 (2019)
10185-10196.
[73] J.A. Piehl, A. Zyada, L. Bravo, O. Samimi-Abianeh, Review of oxidation of gasoline
surrogates and its components, J. Combust. 2018 (2018) 1-27.
[74] C.C. Liu, Detailed influences of ethanol as fuel additive on combustion chemistry of
premixed fuel-rich ethylene flames, Sci. China: Technol. Sci. 58 (2015) 1696-1704.75
[75] O.L. Gulder, Burning velocities of ethanol-isooctane blends, Combust. Flame 56 (1984)
261-268.
[76] K.C. Salooja, The role of aldehydes in combustion: Studies of the combustion
characteristics of aldehydes and of their influence on hydrocarbon combustion
processes, Combust. Flame 9 (1965) 373-382.
[77] S.M. Sarathy, P. Oßwald, N. Hansen, K. Kohse-Höinghaus, Alcohol combustion
chemistry, Prog. Energy Combust. Sci. 44 (2014) 40-102.
[78] B.M. Masum, H.H. Masjuki, M.A. Kalam, I.M. Rizwanul Fattah, S.M. Palash, M.J.
Abedin, Effect of ethanol–gasoline blend on NOx emission in SI engine, Renewable
Sustainable Energy Rev. 24 (2013) 209-222.
[79] R. Stone, Introduction to internal combustion engines 4th edition, Palgrave Macmillan,
U.K., 2012. p. 69.
[80] D. Lapalme, F. Halter, C. Mounaïm-Rousselle, P. Seers, Characterization of
thermodiffusive and hydrodynamic mechanisms on the cellular instability of syngas fuel
blended with CH4 or CO2, Combust. Flame 193 (2018) 481-490.
[81] M. Canakci, A.N. Ozsezen, E. Alptekin, M. Eyidogan, Impact of alcohol–gasoline fuel
blends on the exhaust emission of an SI engine, Renewable Energy 52 (2013) 111-117.
[82] M. Koç, Y. Sekmen, T. Topgül, H.S. Yücesu, The effects of ethanol–unleaded gasoline
blends on engine performance and exhaust emissions in a spark-ignition engine,
Renewable Energy 34 (2009) 2101-2106.
[83] Y. Zhuang, G. Hong, Primary investigation to leveraging effect of using ethanol fuel on
reducing gasoline fuel consumption, Fuel 105 (2013) 425-431.
[84] J.R. Tavares, M.S. Sthel, L.S. Campos, M.V. Rocha, G.R. Lima, M.G. da Silva, H.
Vargas, Evaluation of pollutant gases emitted by ethanol and gasoline powered vehicles,
Procedia Environ. Sci. 4 (2011) 51-60.
[85] S. Rajan, Water-ethanol-gasoline blends-physical properties, power, and pollution
characteristics, J. Eng. Gas Turbines Power 106 (1984) 841.
[86] A.K.S. R. W. Rice, A. C. Elrod, R. M. Bata, Exhaust gas emissions of butanol, ethanol,
and methanol-gasoline blends, J. Eng. Gas Turbines Power 113 (1991) 377.
[87] S. R. Turns, An introduction to combustion concepts and applications. 3rd edition,
McGraw-Hill, New York, 2000, p. 21.
[88] G. Damköhler. 1940 The effect of turbulence on the flame velocity in gas mixtures. Z.
Elektrochem 46 (1947) 601-652. (English transl. NACA Tech. Mem. 1112 (1947).76
[89] N. Peters, Laminar flamelet concepts in turbulent combustion, Proc. Combust. Inst. 21
(1986) 1231-1250.
[90] K.K. Kuo, R. Acharya, Fundamentals of turbulent and multiphase combustion, John
Wiley& Sons, Hobken, New Jersey, 2012, p.311.
[91] 黃信閔, 預混紊流球狀火焰速率與自我相似傳播之量測分析, 國立中央大學機
械工程研究所, 碩士論文 (2013).
[92] D. Dasgupta, W. Sun, M. Day, T. Lieuwen, Effect of turbulence–chemistry interactions
on chemical pathways for turbulent hydrogen–air premixed flames, Combust. Flame
176 (2017) 191-201.
[93] S. Chaudhuri, F. Wu, D. Zhu, C.K. Law, Flame speed and self-similar propagation of
expanding turbulent premixed flames, Phys. Rev. Lett. 108 (2012) 044503 (1-5).
[94] S. Chaudhuri, F. Wu, C.K. Law, Scaling of turbulent flame speed for expanding flames
with Markstein diffusion considerations, Phys. Rev. E 88 (2013) 033005 (1-13).
[95] P.D. Ronney, in: J.D. Buckmaster, T. Takeno (Eds.), Modeling in Combustion Science,
Lecture Notes in Physics, vol. 449, Springer-Verlag, Berlin, 1995, pp. 3-20.
[96] T. Kitagawa, T. Nakahara, K. Maruyama, K. Kado, A. Hayakawa, S. Kobayashi,
Turbulent burning velocity of hydrogen–air premixed propagating flames at elevated
pressures, Int. J.Hydrogen Energy 33 (2008) 5842-5849.
[97] Muppala SPR, Nakahara M, Aluri NK, Kido H, Wen JX, Papalexandris MV.
Experimental and analytical investigation of the turbulent burning velocity of twocomponent fuel mixtures of hydrogen, methane and propane, Int. J.Hydrogen Energy
34 (2009) 9258-9265.
[98] D. Lapalme, R. Lemaire, P. Seers, Assessment of the method for calculating the Lewis
number of H2/CO/CH4 mixtures and comparison with experimental results, Int. J.
Hydrogen Energy 42 (2017) 8314-8328.
[99] Bonhomme A, Selle L, Poinsot T. Curvature and confinement effects for flame speed
measurements in laminar spherical and cylindrical flames, Combust. Flame 160 (2013)
1208-1214.
[100] Kwon OC, Rozenchan G, Law CK. Cellular instabilities and self-acceleration of
outwardly propagating spherical flames, Proc. Combust. Inst. 29 (2002) 1775-1783.
[101] Bouvet N, Halter F, Chauveau C, Yoon Y. On the effective Lewis number formulations
for lean hydrogen/hydrocarbon/ air mixtures, Int. J. Hydrogen Energy 38 (2013) 5949-
5960.77
[102] D. Dasgupta, W. Sun, M. Day, A.J. Aspden, T. Lieuwen, Analysis of chemical
pathways and flame structure for n-dodecane/air turbulent premixed flames, Combust.
Flame 207 (2019) 36-50. |