[1] Asad U., Divekar P.S., Zheng M., High efficiency ethanol-diesel dual-fuel combustion: Analyses of performance, emissions and thermal efficiency over the engine load range. Fuel, 2022, 310: 122397.
[2] Ye Y., Liu H., Li J., et al., A numerical investigation on the effects of intake swirl and mixture stratification on combustion characteristics in a natural-gas/diesel dual-fuel marine engine. Journal of Thermal Science, 2023, 32(1): 414–426.
[3] Duan X., Xu Z., Sun X., et al., Effects of injection timing and EGR on combustion and emissions characteristics of the diesel engine fuelled with acetone-butanol- ethanol/diesel blend fuels. Energy, 2021, 231: 121069.
[4] Zhang L., Yang K., Zhao R., et al., Nanostructure and reactivity of soot from biofuel 2,5-dimethylfuran pyrolysis with CO2 additions. Frontiers in Energy, 2022, 16(2): 292–306.
[5] Pradeep V., Anand K., Novel strategies to extend the operating load range of a premixed charge compression ignited light-duty diesel engine. Fuel, 2022, 317: 123520.
[6] Xia C., Zhao T., Fang J., et al., Experimental study of stratified lean burn characteristics on a dual injection gasoline engine. Frontiers in Energy, 2022, 16(6): 900–915.
[7] Natarajan S., Pitchandi K., Mahalakshmi N.V., Optimization of performance and emission characteristics of PPCCI engine fuelled with ethanol and diesel blends using grey-Taguchi method. Journal of Thermal Science, 2018, 27: 89–94.
[8] Wu H., Zhang Y., Mi S., et al., A methodology for regulating fuel stratification and improving fuel economy of GCI mode via double main-injection strategy. Frontiers in Energy, 2023, 17: 678–691.
[9] Wang K., Zhao C., Cai Y., Effect of intake air humidification and EGR on combustion and emission characteristics of marine diesel engine at advanced injection timing. Journal of Thermal Science, 2021, 30(4): 1174–1186
[10] Zhao T., Ren Z., Yang K., et al., Combustion and emissions of RP-3 jet fuel and diesel fuel in a single-cylinder diesel engine. Frontiers in Energy, 2021, 17: 664–677.
[11] Shao Z., Wang J., Han Y., et al., The synergistic effect of fuel aromatic components refinement and ignition timing on GDI engine performance and emissions. Fuel, 2021, 298: 120800.
[12] Zhao H., Wang J., Cai X., et al., Development of a fan-stirred constant volume combustion chamber and turbulence measurement with PIV. Frontiers in Energy, 2022, 16(6): 973–987.
[13] Tekawade A., Oehlschlaeger M., An experimental study of the spray ignition of alkanes. Fuel, 2016, 185: 381–393.
[14] Zhao T., Lyu D., Duan Y., et al., Spray characteristics of rp-3 jet fuel at non-evaporating and evaporating environments. Journal of Thermal Science, 2023, 32(1): 438–447.
[15] Shi Z., Lee C., Wu H., et al., Effect of injection pressure on the impinging spray and ignition characteristics of the heavy-duty diesel engine under low-temperature conditions. Applied Energy, 2020, 262: 114552.
[16] Burden S., Tekawade A., Oehlschlaeger M.A., Ignition delay times for jet and diesel fuels: Constant volume spray and gas-phase shock tube measurements. Fuel, 2018, 219: 312–319.
[17] Mueller C.J., Cannella W.J., Bruno T.J., et al., Methodology for formulating diesel surrogate fuels with accurate compositional, ignition-quality, and volatility characteristics. Energy & Fuels, 2012, 26(6): 3284–3303.
[18] Farrell J.T., Cernansky N.P., Dryer F.L., et al., Development of an experimental database and kinetic models for surrogate diesel fuels. SAE Technical Paper 2007-01-0201, 2007.
[19] Anand K., Ra Y., Reitz R.D., et al., Surrogate model development for fuels for advanced combustion engines. Energy & Fuels, 2011, 25(4): 1474–1484.
[20] Karimkashi S., Gadalla M., Kannan J., et al., Large-eddy simulation of diesel pilot spray ignition in lean methane-air and methanol-air mixtures at different ambient temperatures. International Journal of Engine Research, 2023, 24(3): 965–981.
[21] Kolaitis D.I., Founti M.A., On the assumption of using n-heptane as a “surrogate fuel” for the description of the cool flame oxidation of diesel oil. Proceedings of the Combustion Institute, 2009, 32(2): 3197–3205.
[22] Hernandez J., Sanz-Argent J., Benajes J., et al., Selection of a diesel fuel surrogate for the prediction of auto-ignition under HCCI engine conditions. Fuel, 2008, 87: 655–665.
[23] Yu L., Mao Y., Li A., et al., Experimental and modeling validation of a large diesel surrogate: Autoignition in heated rapid compression machine and oxidation in flow reactor. Combustion and Flame, 2019, 202: 195–207.
[24] Xiao G., Zhang Y., Lang J., Kinetic modeling study of the ignition process of homogeneous charge compression ignition engine fueled with three-component diesel surrogate. Industrial & Engineering Chemistry Research, 2013, 52(10): 3732–3741.
[25] Wu Z., Mao Y., Yu L., et al., Auto-ignition characteristics of a near-term light surrogate fuel for marine diesel: An experimental and modeling study. Combustion and Flame, 2021, 228: 302–314.
[26] ASTM D613-18ae1, Standard test method for cetane number of diesel fuel oil. ASTM International, 2018.
[27] ASTM D6890-21, Standard test method for determination of ignition delay and derived cetane number (DCN) of diesel fuel oils by combustion in a constant volume chamber. ASTM International, 2021.
[28] ASTM D7668-17, Standard test method for determination of derived cetane number (DCN) of diesel fuel oils ignition delay using a constant volume combustion chamber method. ASTM International, 2017.
[29] ASTM D976-21, Standard test method for calculated cetane index of distillate fuels. ASTM International, 2021.
[30] ASTM D8183-18, Standard test method for determination of indicated cetane number (ICN) of diesel fuel oils using a constant volume combustion chamber-reference fuels calibration method. ASTM International, 2018.
[31] ASTM D4737-21, Standard test method for calculated cetane index by four variable equation. ASTM International, 2021.
[32] Bacha J., Freel J., Gibbs A., et al., Diesel fuels technical review. Chevron Corporation, Sam Ramon, CA, 2020.
[33] ASTM D975-21, Standard specification for diesel fuel oils. ASTM International, 2021.
[34] Duan Y., Liu W., Huang Z., et al., An experimental study on spray auto-ignition of RP-3 jet fuel and its surrogates. Frontiers in Energy, 2021, 15(2): 396–404.
[35] Duan Y., Liu W., Liang X., et al., Effects of branch structure of alkylbenzenes on spray auto-ignition of n-decane and alkylbenzenes blends. International Journal of Engine Research, 2021, 22(5): 1636–1651.
[36] Kuszewski H., Experimental study of the autoignition properties of n-butanol-diesel fuel blends at various ambient gas temperatures. Fuel, 2019, 235: 1316–1326.
[37] Kuszewski H., Experimental investigation of the autoignition properties of ethanol-biodiesel fuel blends. Fuel, 2019, 235: 1301–1308.
[38] Liang X., Duan Y., Fan Y., et al., Influences of C5 esters addition on anti-knock and auto-ignition tendency of a gasoline surrogate fuel. International Journal of Engine Research, 2022, 23(10): 1782–1791.
[39] Lapuerta M., Hernández J.J., Fernández-Rodríguez D., et al., Autoignition of blends of n -butanol and ethanol with diesel or biodiesel fuels in a constant-volume combustion chamber. Energy, 2017, 118: 613–621.
[40] Soloiu V., Wiley J.T., Gaubert R., et al., Fischer-Tropsch coal-to-liquid fuel negative temperature coefficient region (NTC) and low-temperature heat release (LTHR) in a constant volume combustion chamber (CVCC). Energy, 2020, 198: 117288.
[41] Han D., Zhai J., Huang Z., Autoignition of n-hexane, cyclohexane, and methylcyclohexane in a constant volume combustion chamber. Energy & Fuels, 2019, 33(4): 3576–3583.
[42] Han D., Duan Y., Zhai J., Autoignition comparison of n-dodecane/benzene and n-dodecane/toluene blends in a constant volume combustion chamber. Energy & Fuels, 2019, 33(6): 5647–5654.
[43] Guan Y., Liu W., Han D., Comparative study on spray auto-ignition of di-n-butyl ether and diesel blends at engine-like conditions. Journal of Energy Resources Technology, 2021, 143(4): 042302.
[44] Shen H.P.S., Steinberg J., Vanderover J., et al., A shock tube study of the ignition of n-heptane, n-decane, n-dodecane, and n-tetradecane at elevated pressures. Energy & Fuels, 2009, 23(5): 2482–2489.
[45] Moriue O., Eigenbrod C., Rath H.J., et al., Effects of dilution by aromatic hydrocarbons on staged ignition behavior of n-decane droplets. Proceedings of the Combustion Institute, 2000, 28(1): 969–975.
[46] Chang Y., Jia M., Li Y., et al., Development of a skeletal mechanism for diesel surrogate fuel by using a decoupling methodology. Combustion and Flame, 2015, 162(10): 3785–3802.
[47] Ramirez L.H.P., Hadj-Ali K., Diévart P., et al., Kinetics of oxidation of commercial and surrogate diesel fuels in a jet-stirred reactor: experimental and modeling studies. Energy & Fuels, 2010, 24(3): 1668–1676.
[48] Liu Z., Yang L., Song E., et al., Development of a reduced multi-component combustion mechanism for a diesel/natural gas dual fuel engine by cross-reaction analysis. Fuel, 2021, 293: 120388.
[49] Design Institute for Physical Properties, Sponsored by AICHE. DIPPR Project 801- Full Version. Design Institute for Physical Property Research/AICHE, 2019.
[50] Murphy M.J., Taylor J.D., Mccormick R.L., Compendium of experimental cetane number data. National Renewable Energy Laboratory, 2004.
[51] Woschni G., A universally applicable equation for the instantaneous heat transfer coefficient in the internal combustion engine. SAE Technical Paper 670931, 1967.
[52] Xi S., Xue J., Wang F., et al., Reduction of large-size combustion mechanisms of n-decane and n-dodecane with an improved sensitivity analysis method. Combustion and Flame, 2020, 222: 326–335.
[53] Wang H., Warner S.J., Oehlschlaeger M.A., et al., An experimental and kinetic modeling study of the autoignition of α-methylnaphthalene/air and α-methylnaphthalene/n-decane/air mixtures at elevated pressures. Combustion and Flame, 2010, 157(10): 1976–1988.
