Laminar burning velocities of hydrogen–air mixtures from closed vessel gas explosions

The effect of temperature on the adiabatic burning velocities of diluted hydrogen flames: A kinetic study using an updated mechanism

“…S22-S41. 3.5. Laminar burning velocity and flame structure of H 2 mixtures Figures 7 and 8 show the laminar burning velocity of H 2 + air mixtures at 1 atm [7,8,[130][131][132][133][134][135][136][137][138][139][140][141][142][143][144][145][146] at room and elevated temperatures, respectively. It can be seen that both the current model and the previous version [6] agree well with the most recent experimental data in a wide range of equivalence ratios except very lean and very rich flames.…”

Benchmarking of Improved DPAC Transient Deflagration Analysis Code

“…In the modified version, an empirical laminar burning velocity correlation is added so that the laminar burning velocity can be calculated as a function of the temperature, the pressure, and the unburned gas composition. The correlation is fit to data compiled by Dahoe at difference hydrogen/air ratios for the unburned gas [6], as shown by Fig. 2.…”

Jojoba methyl ester as a diesel fuel substitute: Preparation and characterization

“…Then the laminar burning velocity increases as equivalence ratio increases until it reaches a maximum value at the stoichiometric mixture. On the rich side, the laminar burning velocity begins to decrease until it reaches a minimum value as the higher flammability limit is approached [6,9,12,30,31].…”