Experimental Measurement of Laminar Flame Velocities of LPG–Air …
303
the basic infrastructure provided. Finally, it is with true pleasure that I acknowledge the contribution
of Mr. Fernandes Yashlie Felestio, Mr. Gawas Sahil Vishwanath, Mr. Walke Pratik Mahesh, Mr.
Asnotikar Sajan Vivekanandand, and Mr. Anup J. Gourgonda who have helped us in conducting
the experiments.
References
1. Noor M, Wandel AP, Yusaf T (2014) Effect of air-fuel ratio on temperature distribution and
pollutants for biogas MILD combustion. Int J Automot Mech Eng 10:1980–1992
2. Bosschaart KJ, De Goey L (2004) The laminar burning velocity of flames propagating in
mixtures of hydrocarbons and air measured with the heat flux method. Combust Flame 136:261–
269
3. Hu E, Huang Z, He J, Jin C, Zheng J (2009) Experimental and numerical study on laminar
burning characteristics of premixed methane–hydrogen–air flames. Int J Hydrogen Energy
34:4876–4888
4. KocharYTL, Seitzman J (2009) Laminar flame speeds of C1-C3 alkanes at elevated pressure
and temperature with dilution. Presented at the Proceedings of the 6th US National Combustion
Meeting
5. Yu Cheng CT, Huang Z (2015) Kinetic analysis of H2 addition effect on the laminar flame
parameters of the C1-C4 n-alkane-air mixtures: from one step overall assumption to detailed
reaction mechanism. Int J Hydrogen Energy 40:703–718
6. Mishra DP (2008) Fundamentals of combustion. Prentice-Hall of India Publications, New Delhi
7. Mulla TA, Kesarapenti MS, Shetye TK, Lad HJ et al (2020) Design and development of
laboratory scale flame tube apparatus. AIP Publishing
8. Tripathi A, Chandra H, Agarwal M (2010) Effect of mixture constituents on the laminar burning
velocity of LPG-CO 2 -Air mixtures. ARPN J EngApplSci 2(3)
9. Yousif AA, Sulaiman SA, Nasif MS (2015) Experimental study on laminar flame speed and
Markstein length of propane air mixtures at atmospheric conditions. Int J Automot Mech Eng
(IJAME) 11:2188–2198
10. Glassman I (2008) Combustion, 4th edn. Academic Press, USA
303
the basic infrastructure provided. Finally, it is with true pleasure that I acknowledge the contribution
of Mr. Fernandes Yashlie Felestio, Mr. Gawas Sahil Vishwanath, Mr. Walke Pratik Mahesh, Mr.
Asnotikar Sajan Vivekanandand, and Mr. Anup J. Gourgonda who have helped us in conducting
the experiments.
References
1. Noor M, Wandel AP, Yusaf T (2014) Effect of air-fuel ratio on temperature distribution and
pollutants for biogas MILD combustion. Int J Automot Mech Eng 10:1980–1992
2. Bosschaart KJ, De Goey L (2004) The laminar burning velocity of flames propagating in
mixtures of hydrocarbons and air measured with the heat flux method. Combust Flame 136:261–
269
3. Hu E, Huang Z, He J, Jin C, Zheng J (2009) Experimental and numerical study on laminar
burning characteristics of premixed methane–hydrogen–air flames. Int J Hydrogen Energy
34:4876–4888
4. KocharYTL, Seitzman J (2009) Laminar flame speeds of C1-C3 alkanes at elevated pressure
and temperature with dilution. Presented at the Proceedings of the 6th US National Combustion
Meeting
5. Yu Cheng CT, Huang Z (2015) Kinetic analysis of H2 addition effect on the laminar flame
parameters of the C1-C4 n-alkane-air mixtures: from one step overall assumption to detailed
reaction mechanism. Int J Hydrogen Energy 40:703–718
6. Mishra DP (2008) Fundamentals of combustion. Prentice-Hall of India Publications, New Delhi
7. Mulla TA, Kesarapenti MS, Shetye TK, Lad HJ et al (2020) Design and development of
laboratory scale flame tube apparatus. AIP Publishing
8. Tripathi A, Chandra H, Agarwal M (2010) Effect of mixture constituents on the laminar burning
velocity of LPG-CO 2 -Air mixtures. ARPN J EngApplSci 2(3)
9. Yousif AA, Sulaiman SA, Nasif MS (2015) Experimental study on laminar flame speed and
Markstein length of propane air mixtures at atmospheric conditions. Int J Automot Mech Eng
(IJAME) 11:2188–2198
10. Glassman I (2008) Combustion, 4th edn. Academic Press, USA