"fire propagation" is a correct and usable phrase in written English.
It refers to the spread or movement of fire from one location to another. An example sentence using "fire propagation" could be: "The rapid fire propagation was caused by strong winds, making it difficult for firefighters to contain the blaze."
This study simulated fire propagation in road corridors with the help of a cellular automata (CA).
But we also found that fire increased landscape homogeneity, creating a positive feedback on fire propagation.
We developed an efficient cellular automata model in Graphic Processing Units (GPUs) to simulate fire propagation.
A stochastic model is applied to predict fire propagation through forest landscapes with fuelbreaks.
Fire, climate and vegetation patterns produce non-linear fire propagation across the landscape.
Calorimetry was performed using the FM-global fire propagation apparatus (FPA).
Environ Health Perspect 121 1194 1199; http://dx.doi.org/10.1289/ehp.1306902 Properties of brominated flame retardants (BFRs) that reduce flame propagation during fires have resulted in increased utilization of BFRs in electronic devices, building materials, furniture, automobiles, and airplanes (Green 1996; Shaw et al. 2010).
From the specimen tests, it was seen that the interior panels met the fire safety for the flame propagation, toxicity and smoke density performance.
By using the model, we simulated variations of flame propagation velocity during operation of oxy-fuel fired plants.
Physical and geometrical characteristics of flame propagation are very important to better understand the forest fire spread behaviour and to improve risk management tools.
Although the hazards of aerosol fires and explosions have been studied for decades the data for aerosol flame propagation is still scarce.
