A Computer Model Of Upward Flame Spread On Vertical Surfaces
Craig L. Beyler, Sean Hunt, N. Lqbal, Fred W. Williams
Abstract
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Craig L. Beyler, Sean Hunt, N. Lqbal, Fred W. Williams
Abstract
Open-access reader
A model which describes the physical processes of upward flame spread and f r e growth on wall materials has been developed and implemented as a computer program.The computerbased flame spread model simulates the f i e growth along a vertical combustible wall.The vertical wall material may be heated by an imposed external heat flux and is ignited at its bottomedge with a flame from a line burner of user specified strength.The model predicts the flame spread rate, the heat release rate of the fure, the flame height, the net heat flux to the wall surface, and the time varying surface temperature.The model uses inputs developed from cone calorimeter data.The results from the model compare favorably to upward flame spread experimental results for PMMA, plywood, and vinyl-esterlglass composite found in the literature.
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A model which describes the physical processes of upward flame spread and f r e growth on wall materials has been developed and implemented as a computer program.The computerbased flame spread model simulates the f i e growth along a vertical combustible wall.The vertical wall material may be heated by an imposed external heat flux and is ignited at its bottomedge with a flame from a line burner of user specified strength.The model predicts the flame spread rate, the heat release rate of the fure, the flame height, the net heat flux to the wall surface, and the time varying surface temperature.The model uses inputs developed from cone calorimeter data.The results from the model compare favorably to upward flame spread experimental results for PMMA, plywood, and vinyl-esterlglass composite found in the literature.
Key concepts: Flame spread, Cone calorimeter, Combustor, Heat flux, Materials science, Composite material, Gas burner, Mechanics