Experimentally producing firebrands showers from disparate fuels to represent the combustion of structural and vegetative fuels simultaneously

• Laboratory-scale firebrand generator used to generate a new set of firebrand distributions • Douglas-fir (DF) wood pieces were fed to represent firebrands from vegetative fuel combustion • Western Red Cedar (WRC) wood pieces fed to represent firebrands from burning buildings • For each feeding scenario, results reported on the spatially resolved number distribution, as well as detailed size, mass, and exit velocity of the generated firebrands • For the first time, possible to simultaneously produce glowing firebrands representative of vegetative combustion and building combustion in the same shower A laboratory-scale firebrand generator, developed by the authors, has been used to generate a new set of firebrand distributions to replicate firebrand shower processes from cedar building materials and mixed, disparate Douglas-fir/cedar wood species. Douglas-fir (DF) wood pieces were intended to represent firebrands from vegetative fuel combustion, such as shrubs or trees, and were cut into the dimensions, average (± standard deviation) of 7.9 (± 1) mm (thickness), 7.9 (± 1) mm (width), and 12.7 (± 1) mm (length) with the mass of 0.50 (± 0.05) g. Western Red Cedar (WRC) wood pieces, intended to represent firebrands from burning buildings, were made from Red Cedar wood shingle siding, and cut into the dimensions, average (± standard deviation), of 40 (± 2) mm (length), 40 (± 2) mm (width), and 6.9 (± 1.8) mm (thickness) with the mass of 3.59 (± 0.91) g. Glowing firebrand distributions were produced by feeding these wood types in the firebrand generator using three methods: DF only at 80 g/min, WRC only at 80 g/min, and a mix of DF at 40 g/min and WRC at 40 g/min. For each feeding scenario, results are reported on the spatially resolved number distribution, as well as detailed size, mass, and exit velocity of the generated firebrands. For the first time, it is possible to simultaneously produce glowing firebrands representative of vegetative combustion and building combustion in the same shower.

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Publication Details

Journal
Applications in Energy and Combustion Science
Published
2025-09-27
DOI
https://doi.org/10.1016/j.jaecs.2025.100399
Primary Topic
Fire effects on ecosystems
Type
article
Field-Weighted Citation Impact
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article

Experimentally producing firebrands showers from disparate fuels to represent the combustion of structural and vegetative fuels simultaneously

Sayaka Suzuki, Samuel L. Manzello
Applications in Energy and Combustion Science
Fire effects on ecosystems
article

Experimentally producing firebrands showers from disparate fuels to represent the combustion of structural and vegetative fuels simultaneously

Sayaka Suzuki, Samuel L. Manzello
article en

Abstract

• Laboratory-scale firebrand generator used to generate a new set of firebrand distributions • Douglas-fir (DF) wood pieces were fed to represent firebrands from vegetative fuel combustion • Western Red Cedar (WRC) wood pieces fed to represent firebrands from burning buildings • For each feeding scenario, results reported on the spatially resolved number distribution, as well as detailed size, mass, and exit velocity of the generated firebrands • For the first time, possible to simultaneously produce glowing firebrands representative of vegetative combustion and building combustion in the same shower A laboratory-scale firebrand generator, developed by the authors, has been used to generate a new set of firebrand distributions to replicate firebrand shower processes from cedar building materials and mixed, disparate Douglas-fir/cedar wood species. Douglas-fir (DF) wood pieces were intended to represent firebrands from vegetative fuel combustion, such as shrubs or trees, and were cut into the dimensions, average (± standard deviation) of 7.9 (± 1) mm (thickness), 7.9 (± 1) mm (width), and 12.7 (± 1) mm (length) with the mass of 0.50 (± 0.05) g. Western Red Cedar (WRC) wood pieces, intended to represent firebrands from burning buildings, were made from Red Cedar wood shingle siding, and cut into the dimensions, average (± standard deviation), of 40 (± 2) mm (length), 40 (± 2) mm (width), and 6.9 (± 1.8) mm (thickness) with the mass of 3.59 (± 0.91) g. Glowing firebrand distributions were produced by feeding these wood types in the firebrand generator using three methods: DF only at 80 g/min, WRC only at 80 g/min, and a mix of DF at 40 g/min and WRC at 40 g/min. For each feeding scenario, results are reported on the spatially resolved number distribution, as well as detailed size, mass, and exit velocity of the generated firebrands. For the first time, it is possible to simultaneously produce glowing firebrands representative of vegetative combustion and building combustion in the same shower.

Applications in Energy and Combustion ScienceVol. 24
Tokyo Institute of Technology (JP), Tohoku University (JP)
Openalex Percentile: Top 75%
Fire effects on ecosystems
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