Pressure history in the explosion of moist syngas/air mixtures

Fuel

Volumn 185, Issue , 2016, Pages 18-25

  Xie, Yongliang ^a   Wang, Jinhua ^a   Cai, Xiao ^a   Huang, Zuohua ^a  

^a XI'AN JIAOTONG UNIVERSITY   (China)

Author keywords

Deflagration index; H2O addition; Pressure history; Syngas

Indexed keywords

COMBUSTION; HEAT LOSSES; MIXTURES; SYNTHESIS GAS;

DEFLAGRATION INDEX; ELEVATED TEMPERATURE; EXPLOSION CHARACTERISTICS; H2O ADDITION; INITIAL TEMPERATURES; MAXIMUM RATE OF PRESSURE RISE; PRESSURE HISTORY; SYN-GAS;

EXPLOSIONS;

EID: 84994494021     PISSN: 00162361     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.fuel.2016.07.072     Document Type: Article

References (35)

1. [1] Boehman, A.L., Corre, O.L., Combustion of syngas in internal combustion engines. Combust Sci Technol 180:6 (2008), 1193–1206.
2. [2] Rakopoulos, C., Michos, C., Development and validation of a multi-zone combustion model for performance and nitric oxide formation in syngas fueled spark ignition engine. Energy Convers Manage 49:10 (2008), 2924–2938.
3. [3] Xie, Y.L., Wang, J.H., Xu, N., Yu, S.B., Zhang, M., Huang, Z.H., Thermal and chemical effects of water addition on laminar burning velocity of syngas. Energy Fuel 28:5 (2014), 3391–3398.
4. [4] Prabhukumar, G., Swaminathan, S., Nagalingam, B., Gopalakrishnan, K., Water induction studies in a hydrogen-diesel dual-fuel engine. Int J Hydrogen Energy 12:3 (1987), 177–186.
5. [5] Subramanian, V., Mallikarjuna, J., Ramesh, A., Effect of water injection and spark timing on the nitric oxide emission and combustion parameters of a hydrogen fuelled spark ignition engine. Int J Hydrogen Energy 32:9 (2007), 1159–1173.
6. [6] Correa, S.M., A review of NOx formation under gas-turbine combustion conditions. Combust Sci Technol 87:1–6 (1993), 329–362.
7. [7] Jo, Y.D., Crowl, D.A., Explosion characteristics of hydrogen-air mixtures in a spherical vessel. Process Saf Prog 29:3 (2010), 216–223.
8. [8] Tang, C.L., Huang, Z.H., Jin, C., He, J., Wang, J.H., Wang, X.G., et al. Explosion characteristics of hydrogen–nitrogen–air mixtures at elevated pressures and temperatures. Int J Hydrogen Energy 34:1 (2009), 554–561.
9. [9] Movileanu, C., Gosa, V., Razus, D., Explosion of gaseous ethylene–air mixtures in closed cylindrical vessels with central ignition. J Hazard Mater 235 (2012), 108–115.
10. [10] Dupont, L., Accorsi, A., Explosion characteristics of synthesised biogas at various temperatures. J Hazard Mater 136:3 (2006), 520–525.
11. [11] Razus, D., Brinzea, V., Mitu, M., Oancea, D., Explosion characteristics of LPG–air mixtures in closed vessels. J Hazard Mater 165:1–3 (2009), 1248–1252.
12. [12] Razus, D., Movileanua, C., Oancea, D., The rate of pressure rise of gaseous propylene–air explosions in spherical and cylindrical enclosures. J Hazard Mater 139:1 (2007), 1–8.
13. [13] Phylaktou, H., Andrews, G., Herath, P., Fast flame speeds and rates of pressure rise in the initial period of gas explosions in large L/D cylindrical enclosures. J Loss Prevent Proc 3:4 (1990), 355–364.
14. [14] Phylaktou, H., Andrews, G., Gas explosions in long closed vessels. Combust Sci Technol 77:1–3 (1991), 27–39.
15. [15] Andrews, G., Herath, P., Phylaktou, H., The influence of flow blockage on the rate of pressure rise in large L/D cylindrical closed vessel explosions. J Loss Prevent Proc 3:3 (1990), 291–302.
16. [16] Ning, J.G., Wang, C., Lu, J., Explosion characteristics of coal gas under various initial temperatures and pressures. Shock Waves 15:6 (2006), 461–472.
17. [17] Movileanu, C., Razus, D., Oancea, D., Additive effects on the rate of pressure rise for ethylene–air deflagrations in closed vessels. Fuel 111 (2013), 194–200.
18. [18] Razus, D., Brinzea, V., Mitu, M., Movileanu, C., Oancea, D., Inerting effect of the combustion products on the confined deflagration of liquefied petroleum gas–air mixtures. J Loss Prevent Proc 22:4 (2009), 463–468.
19. [19] Dahoe, A., Laminar burning velocities of hydrogen–air mixtures from closed vessel gas explosions. J Loss Prevent Proc 18:3 (2005), 152–166.
20. [20] Savitzky, A., Golay, M.J., Smoothing and differentiation of data by simplified least squares procedures. Anal Chem 36:8 (1964), 1627–1639.
21. [21] Razus, D., Movileanu, C., Brinzea, V., Oancea, D., Explosion pressures of hydrocarbon–air mixtures in closed vessels. J Hazard Mater 135:1 (2006), 58–65.
22. [22] Tang, C.L., Zhang, S., Si, Z.B., Huang, Z.H., Zhang, K., Jin, Z., High methane natural gas/air explosion characteristics in confined vessel. J Hazard Mater 278 (2014), 520–528.
23. [23] Movileanu, C., Razus, D., Oancea, D., Additive effects on explosion pressure and flame temperature of stoichiometric ethylene–air mixture in closed vessels. Rev Roum Chim 56 (2011), 11–17.
24. [24] Crowl, D.A., Jo, Y.-D., The hazards and risks of hydrogen. J Loss Prevent Proc 20:2 (2007), 158–164.
25. [25] Dryer, F.L., Chaos, M., Ignition of syngas/air and hydrogen/air mixtures at low temperatures and high pressures: experimental data interpretation and kinetic modeling implications. Combust Flame 152:1 (2008), 293–299.
26. [26] Law, C., Makino, A., Lu, T., On the off-stoichiometric peaking of adiabatic flame temperature. Combust Flame 145:4 (2006), 808–819.
27. 2/CO combustion. Proc Combust Inst 30:1 (2005), 1283–1292.
28. 2/air mixtures. Int J Hydrogen Energy 39:7 (2014), 3450–3458.
29. [29] Kee, R.J., Dixon-Lewis, G., Warnatz, J., Coltrin, M.E., Miller, J.A., A Fortran computer code package for the evaluation of gas-phase, multicomponent transport properties. 1988, Sandia National Laboratories.
30. [30] Razus, D., Krause, U., Comparison of empirical and semi-empirical calculation methods for venting of gas explosions. Fire Safety J 36:1 (2001), 1–23.
31. [31] Aung, K., Hassan, M., Faeth, G., Flame stretch interactions of laminar premixed hydrogen/air flames at normal temperature and pressure. Combust Flame 109:1 (1997), 1–24.
32. [32] Scholte, T., Vaags, P., Burning velocities of mixtures of hydrogen, carbon monoxide and methane with air. Combust Flame 3 (1959), 511–524.
33. [33] Das, A.K., Kumar, K., Sung, C.-J., Laminar flame speeds of moist syngas mixtures. Combust Flame 158:2 (2011), 345–353.
34. [34] Bradley, D., Mitcheson, A., Mathematical solutions for explosions in spherical vessels. Combust Flame 26 (1976), 201–217.
35. [35] Dahoe, A., Zevenbergen, J., Lemkowitz, S., Scarlett, B., Dust explosions in spherical vessels: the role of flame thickness in the validity of the ‘cube-root law’. J Loss Prevent Proc 9:1 (1996), 33–44.