Flame–wall interactions of lean premixed flames under elevated, rising pressure conditions

Fuel

Volumn 189, Issue , 2017, Pages 8-14

  Yenerdag, Basmil ^a   Minamoto, Yuki ^a   Aoki, Kozo ^a   Shimura, Masayasu ^a   Nada, Yuzuru ^b   Tanahashi, Mamoru ^a  

^a TOKYO INSTITUTE OF TECHNOLOGY   (Japan)

^b UNIVERSITY OF TOKUSHIMA   (Japan)

Author keywords

Direct numerical simulation; Flame wall interactions; Laminar premixed flames; Pressure rising process; Wall heat flux

Indexed keywords

DIRECT NUMERICAL SIMULATION; EXHAUST GAS RECIRCULATION; FLAMMABILITY TESTING; GASES; HEPTANE; METHANE; MIXTURES; NUMERICAL MODELS; QUENCHING; TEMPERATURE; THERMAL CONDUCTIVITY;

AIR PREMIXED FLAMES; BURNED GAS TEMPERATURE; EXHAUST GAS RECIRCULATION (EGR); LAMINAR PREMIXED FLAMES; LEAN PREMIXED FLAMES; LOW-TEMPERATURE OXIDATION; TEMPERATURE DIFFERENCES; WALL HEAT FLUX;

HEAT FLUX;

EID: 84992593020     PISSN: 00162361     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.fuel.2016.10.096     Document Type: Article

References (27)

1. [1] Ratnak, S., Kusaka, J., Daisho, Y., Yoshimura, K., Nakama, K., Thermal efficiency improvement of a lean-boosted spark ignition engine by multidimensional simulation with detailed chemical kinetics. Int J Automotive Eng 6 (2015), 97–104.
2. [2] Hoepke, B., Jannsen, S., Kasseris, E., Cheng, W., EGR effects on boosted SI engine operation and knock integral correlation. SAE Int J Engines 5 (2012), 547–559.
3. 2 with inert walls. Combust Flame 135 (2003), 123–133.
4. [4] Owston, R., Magi, V., Abraham, J., Interactions of hydrogen flames with walls: influence of wall temperature, pressure, equivalence ratio, and diluents. Int J Hydrogen Energy 32 (2007), 2094–2104.
5. [5] Owston, R., Magi, V., Abraham, J., A numerical study of thermal and chemical effects in interactions of n-heptane flames with a single surface. Combust Flame 148 (2007), 127–147.
6. [6] Popp, P., Smooke, M., Baum, M., Heterogeneous/homogeneous reaction and transport coupling during flame-wall interaction. Symp (Int) Combust 26 (1996), 2693–2700.
7. [7] Popp, P., Baum, M., Analysis of wall heat fluxes, reaction mechanisms, and unburnt hydrocarbons during the head-on quenching of a laminar methane flame. Combust Flame 108 (1997), 327–348.
8. [8] Hasse, C., Bollig, M., Peters, N., Dwyer, H., Quenching of laminar iso-octane flames at cold walls. Combust Flame 122 (2000), 117–129.
9. [9] Ezekoye, O., Greif, R., Sawyer, R., Increased surface temperature effects on wall heat transfer during unsteady flame quenching. Symp (Int) Combust 24 (1992), 1465–1472.
10. [10] Connelly L, Greif R, Sawyer R, Lee D. Increased surface temperature effects on wall heat transfer during unsteady flame quenching. The Combustion Institute/Western State Section, Berkeley. Paper no. 92 – 109; 1992.
11. [11] Dreizler, A., Böhm, B., Advanced laser diagnostics for an improved understanding of premixed flame-wall interactions. Proc Combust Inst 35 (2015), 37–64.
12. 2-air premixed flame under pressure rising condition. Proc Combust Inst 35 (2015), 1277–1285.
13. [13] Yenerdag, B., Minamoto, Y., Naka, Y., Shimura, M., Tanahashi, M., Flame propagation and heat transfer characteristics of a hydrogen-air premixed flame in a constant volume vessel. Int J Hydrogen Energy 41 (2016), 9679–9689.
14. [14] Tanahashi, M., Fujimura, M., Miyauchi, T., Coherent fine-scale eddies in turbulent premixed flames. Proc Combust Inst 28 (2000), 529–535.
15. [15] Smith G, Golden D, Frenklach M, Moriarty N, Eiteneer B, Goldenberg M, et al. GRI-Mech 3.0; 1999. < http://www.me.berkeley.edu/gri_mech/>.
16. [16] Maroteaux, F., Noel, L., Development of a reduced n-heptane oxidation mechanism for HCCI combustion modeling. Combust Flame 146 (2006), 246–267.
17. [17] Kee RJ, Dixon-Lewis G, Warnatz J, Coltrin ME, Miller JA. A fortran computer code package for the evaluation of gas-phase multicomponent transport properties. Sandia National Laboratories: report no. SAND86-8246; 1986.
18. [18] Kee RJ, Rupley FM, Miller JA. A fortran chemical kinetics package for the analysis of gas phase chemical kinetics. Sandia National Laboratories: report no. SAND89-8009B; 1989.
19. [19] Lele, S.K., Compact finite difference schemes with spectral-like resolution. J Comput Phys 103 (1992), 16–42.
20. [20] Brown, P., Byrne, G., Hindmarsh, A., VODE: a variable-coefficient ode solver. SIAM J Sci Stat Comput 10 (1989), 1038–1051.
21. [21] Baum, M., Poinsot, T., Thevenin, D., Accurate boundary conditions for multicomponent reactive flows. J Comput Phys 116 (1995), 247–261.
22. [22] Poinsot, T., Lele, S., Boundary conditions for direct simulations of compressible viscous flows. J Comput Phys 101 (1992), 104–129.
23. [23] Sotton, J., Boust, B., Labuda, S.A., Bellenoue, M., Head-on quenching of transient laminar flame: heat flux and quenching distance measurements. Combust Sci Technol 177 (2005), 1305–1322.
24. [24] Najm, H.N., Paul, P.H., Mueller, C.J., Wyckoff, P.S., On the adequacy of certain experimental observables as measurements of flame burning rate. Combust Flame 113 (1998), 312–332.
25. [25] Paul, P.H., Najm, H.N., Planar laser-induced fluorescence imaging of flame heat release rate. Symp (Int) Combust 27 (1998), 43–50.
26. [26] Huang, W., Vosen, S., Greif, R., Heat transfer during laminar flame quenching: effect of fuels. Symp (Int) Combust 21 (1988), 1853–1860.
27. [27] Vosen, S., Greif, R., Westbrook, C., Unsteady heat transfer during laminar flame quenching. Symp (Int) Combust 20 (1985), 75–83.