| [1] |
State Council of China. 2021. Guiding Opinions on Green and Low-Carbon Circular Economy (No. 4) (in Chinese). www.gov.cn/zhengce/content/2021-02/22/content_5588274.htm?5xyFrom=site-NT (Retrieved 22 February, 2021) |
| [2] |
KPMG. 2024. Statistical Review of World Energy. https://kpmg.com/cn/zh/home/insights/2024/08/statistical-review-of-world-energy-2024.html (Retrieved August 26, 2024) |
| [3] |
KPMG. 2024. Energy Institute Statistical Review of World Energy. www.energyinst.org/statistical-review (Retrieved 26 August, 2024) |
| [4] |
Xie W, Li J. 2023. Magnetic solid catalysts for sustainable and cleaner biodiesel production: a comprehensive review. |
| [5] |
Rocha-Meneses L, Hari A, Inayat A, Yousef LA, Alarab S, et al. 2023. Recent advances on biodiesel production from waste cooking oil (WCO): a review of reactors, catalysts, and optimization techniques impacting the production. |
| [6] |
Hasan MM, Rahman MM. 2017. Performance and emission characteristics of biodiesel–diesel blend and environmental and economic impacts of biodiesel production: a review. |
| [7] |
Westbrook CK, Naik CV, Herbinet O, Pitz WJ, Mehl M, et al. 2011. Detailed chemical kinetic reaction mechanisms for soy and rapeseed biodiesel fuels. |
| [8] |
Vranckx S, Beeckmann J, Kopp WA, Lee C, Cai L, et al. 2013. An experimental and kinetic modelling study of n-butyl formate combustion. |
| [9] |
Zhang Y, Boehman AL. 2013. Oxidation behavior of soot generated from the combustion of methyl 2-butenoate in a co-flow diffusion flame. |
| [10] |
Chakravarthy K, Mcfarlane J, Daw S, Ra Y, Reitz R, et al. 2007. Physical properties of bio-diesel and implications for use of bio-diesel in diesel engines. SAE Transactions 116:885−95 |
| [11] |
Ra Y, Reitz R, McFarlane J, Daw S. 2008. Effects of fuel physical properties on diesel engine combustion using diesel and biodiesel fuels. |
| [12] |
Dooley S, Won SH, Chaos M, Heyne J, Ju Y, et al. 2010. A jet fuel surrogate formulated by real fuel properties. |
| [13] |
Anand K, Ra Y, Reitz RD, Bunting B. 2011. Surrogate model development for fuels for advanced combustion engines. |
| [14] |
Hoekman SK, Broch A, Robbins C, Ceniceros E, Natarajan M. 2012. Review of biodiesel composition, properties, and specifications. |
| [15] |
HadjAli K, Crochet M, Vanhove G, Ribaucour M, Minetti R. 2009. A study of the low temperature autoignition of methyl esters. |
| [16] |
Dayma G, Sarathy SM, Togbé C, Yeung C, Thomson MJ, et al. 2011. Experimental and kinetic modeling of methyl octanoate oxidation in an opposed-flow diffusion flame and a jet-stirred reactor. |
| [17] |
Dayma G, Togbé C, Dagaut P. 2009. Detailed kinetic mechanism for the oxidation of vegetable oil methyl esters: new evidence from methyl heptanoate. |
| [18] |
Fisher EM, Pitz WJ, Curran HJ, Westbrook CK. 2000. Detailed chemical kinetic mechanisms for combustion of oxygenated fuels. |
| [19] |
Gaïl S, Thomson MJ, Sarathy SM, Syed SA, Dagaut P, et al. 2007. A wide-ranging kinetic modeling study of methyl butanoate combustion. |
| [20] |
Szybist JP, Song J, Alam M, Boehman AL. 2007. Biodiesel combustion, emissions and emission control. |
| [21] |
Szybist JP, Boehman AL, Haworth DC, Koga H. 2007. Premixed ignition behavior of alternative diesel fuel-relevant compounds in a motored engine experiment. |
| [22] |
Herbinet O, Pitz WJ, Westbrook CK. 2008. Detailed chemical kinetic oxidation mechanism for a biodiesel surrogate. |
| [23] |
Dagaut P, Gaı¨l S, Sahasrabudhe M. 2007. Rapeseed oil methyl ester oxidation over extended ranges of pressure, temperature, and equivalence ratio: Experimental and modeling kinetic study. |
| [24] |
Yang CJ, Tao YJ, Zhang HY. 2024. Binary diffusion coefficient of methyl decanoate and its impact on non-premixed flame extinction: A molecular dynamics study. |
| [25] |
Zhao M, Tao Y, Xiao R, Zhang H. 2023. A HyChem combustion model of methyl decanoate. |
| [26] |
Hotard C, Tekawade A, Oehlschlaeger MA. 2018. Constant volume spray ignition of C9-C10 biodiesel surrogates: Methyl decanoate, ethyl nonanoate, and methyl decenoates. |
| [27] |
Talukder N, Lee KY. 2018. Laminar flame speeds and Markstein lengths of methyl decanoate-air premixed flames at elevated pressures and temperatures. |
| [28] |
Zhai Y, Ao C, Feng B, Meng Q, Zhang Y, et al. 2018. Experimental and kinetic modeling investigation on methyl decanoate pyrolysis at low and atmospheric pressures. |
| [29] |
Herbinet O, Glaude PA, Warth V, Battin-Leclerc F. 2011. Experimental and modeling study of the thermal decomposition of methyl decanoate. |
| [30] |
Gerasimov IE, Knyazkov DA, Dmitriev AM, Kuibida LV, Shmakov AG, et al. 2015. Experimental and numerical study of the structure of a premixed methyl decanoate/oxygen/argon glame. |
| [31] |
Meng Z, Liang K, Fang J. 2019. Laminar burning velocities of iso-octane, toluene, 1-hexene, ethanol and their quaternary blends at elevated temperatures and pressures. |
| [32] |
Raida MB, Hoetmer GJ, Konnov AA, van Oijen JA, de Goey LPH. 2021. Laminar burning velocity measurements of ethanol+air and methanol+air flames at atmospheric and elevated pressures using a new Heat Flux setup. |
| [33] |
Liu L, Han X, Wang C, Zhang S, Feng H. 2024. Experimental and numerical study of laminar burning velocity for Diisobutylene+ PRF/TRF mixtures. |
| [34] |
Al-Khafaji M, Yang JF, Tomlin AS, Thompson HM, de Boer G, et al. 2023. Laminar burning velocities and Markstein numbers for pure hydrogen and methane/hydrogen/air mixtures at elevated pressures. |
| [35] |
Oppong F, Liu Y, Li X, Xu C, Li Y. 2024. The laminar burning velocity of propyl acetate at high pressures and temperatures. |
| [36] |
Fagundez JLS, Sari RL, Garcia A, Pereira FM, Martins MES, et al. 2020. A chemical kinetics based investigation on laminar burning velocity and knock occurrence in a spark-ignition engine fueled with ethanol–water blends. |
| [37] |
Vancoillie J, Demuynck J, Galle J, Verhelst S, van Oijen JA. 2012. A laminar burning velocity and flame thickness correlation for ethanol–air mixtures valid at spark-ignition engine conditions. |
| [38] |
ALICAT. 2024. Mc-Gas-Mass-Flow-Controllers. www.alicat.com.cn/models/mc-gas-mass-flow-controllers (Retrieved August 26, 2024) |
| [39] |
Bronkhorst. 2024. Low Flow Coriolis Mass Flow Controller. www.bronkhorst.com/int/products/liquid-flow/mini-cori-flow/m13v14i (Retrieved August 26, 2024) |
| [40] |
Alekseev VA, Naucler JD, Christensen M, Nilsson EJK, Volkov EN, et al. 2016. Experimental uncertainties of the heat flux method for measuring burning velocities. |
| [41] |
Van Maaren A, de Goey LPH. 1994. Laser doppler thermometry in flat flames. |
| [42] |
Bosschaart KJ, de Goey LPH. 2003. Detailed analysis of the heat flux method for measuring burning velocities. |
| [43] |
Li B, Lindén J, Li ZS, Konnov AA, Aldén M, et al. 2011. Accurate measurements of laminar burning velocity using the Heat Flux method and thermographic phosphor technique. |
| [44] |
van Treek L, Roth N, Seidel L, Mauss F. 2020. Measurements of the laminar burning velocities of rich ethylene/air mixtures. |
| [45] |
Grana R, Frassoldati A, Saggese C, Faravelli T, Ranzi E. 2012. A wide range kinetic modeling study of pyrolysis and oxidation of methyl butanoate and methyl decanoate – Note II: Lumped kinetic model of decomposition and combustion of methyl esters up to methyl decanoate. |
| [46] |
Al-Gharibeh E, Kumar K. 2022. Oxidation kinetics of methyl decanoate in a motored engine. |
| [47] |
Diévart P, Won SH, Dooley S, Dryer FL, Ju Y. 2012. A kinetic model for methyl decanoate combustion. |
| [48] |
Glaude PA, Herbinet O, Bax S, Biet J, Warth V, et al. 2010. Modeling of the oxidation of methyl esters—validation for methyl hexanoate, methyl heptanoate, and methyl decanoate in a jet-stirred reactor. |
| [49] |
Sarathy SM, Thomson MJ, Pitz WJ, Lu T. 2011. An experimental and kinetic modeling study of methyl decanoate combustion. |
| [50] |
Seshadri K, Lu T, Herbinet O, Humer S, Niemann U, et al. 2009. Experimental and kinetic modeling study of extinction and ignition of methyl decanoate in laminar non-premixed flows. |
| [51] |
Luo Z, Lu T, Maciaszek MJ, Som S, Longman DE. 2010. A reduced mechanism for high-temperature oxidation of biodiesel surrogates. |
| [52] |
Fu J, Tang C, Jin W, Huang Z. 2014. Effect of preferential diffusion and flame stretch on flame structure and laminar burning velocity of syngas Bunsen flame using OH-PLIF. |
| [53] |
Hu X, Chen J, Lin Q, Konnov AA. 2024. Experimental and kinetic modeling study of the laminar burning velocity of CH4/H2 mixtures under oxy-fuel conditions. |
| [54] |
Wang J, Su S, Song Y, Jia M, Liu Y, et al. 2024. Experimental and reaction mechanism study on laminar burning velocity and characteristics of OH/NH generation in ammonia co-combustion. |