Grants and Contracts Details
Description
Background
Experimental work undertaken by the Forest Service and cooperators has revealed for the first
time that buoyant instabilities of the flame zone are responsible for non-steady convective
heating of fuel particles leading up to ignition. The university of Kentucky has been a key player
in the investigation of fuel particle heating response using customized IR camera of laboratory
burns. The collaborative study reveals new findings about how wildfires actually spread and
could have significant impacts on firefighter safety and fuel hazards mitigation.
Published in the prestigious Proceedings of the National Academy of Sciences journal, the
study, "Role of buoyant flame dynamics in wildfire spread," specifically reveals how flame
dynamics that produce and transport convective heat effectively governs the spread of wildfire.
It was previously unclear how radiation and convection heat transfer processes, which both
occur in wildfires, are organized to produce wildfire spread.
Statement of Work
This continuing work will be jointly conducted by the Forest Service Missoula Fire Science
Laboratory and the University of Kentucky. It will concentrate on 1) completing the scale
modeling analysis of laboratory and field data that exist and become available during the year,
2) design refinements to laboratory sampling of fuel particle response, and 3) participating in
the field collections from prescribed fires to test the scaling from laboratory to field
proportions.
Expected Results
The Joint efforts are anticipated to produce scale modeling analysis on instabilities and fluid
dynamics of the flame zone to help develop a theory of fire spread and derived practical models
for wildland fire behavior.
Status | Finished |
---|---|
Effective start/end date | 7/31/12 → 6/30/19 |
Funding
- US Department of Agriculture: $97,553.00
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