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Buoyancy effects on concurrent flame spread over thick PMMA
Maria Thomsen
, Carlos Fernandez-Pello
, Gary A. Ruff
, David L. Urban
Faculty of Engineering and Science
Research output
:
Contribution to journal
›
Article
›
peer-review
46
Scopus citations
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Dive into the research topics of 'Buoyancy effects on concurrent flame spread over thick PMMA'. Together they form a unique fingerprint.
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Engineering
Convective
100%
NASA
100%
Fire Safety
100%
Ambient Pressure
100%
Mixed Convection
100%
Fire Safety Design
100%
Reduced Pressure
100%
Gravity Condition
100%
Buoyancy Effect
100%
Airflow Velocity
100%
Ground Potential
100%
Controlling Mechanism
100%
Combustibility
100%
Flow Velocity
100%
Keyphrases
Poly(methyl methacrylate)
100%
Concurrent Flame Spread
100%
Buoyancy Effect
100%
Microgravity
100%
Pressure Effect
50%
Low Pressure
50%
Work Study
25%
Cotton
25%
Flow Velocity
25%
Ambient Pressure
25%
Fire Safety
25%
Forced Flow
25%
Flame Spread
25%
Burning Behavior
25%
Microgravity Data
25%
Mixed Convection
25%
Experimental Testing
25%
Safety Applications
25%
Cygnus Cygnus
25%
Microgravity Experiments
25%
Normal Gravity
25%
Combustible Material
25%
Fire Experiment
25%
Flame Spread Rate
25%
Flammability
25%
Fire Safety Design
25%
Airflow Velocity
25%
Reduced Pressure
25%
Buoyancy
25%
Similarity Experiment
25%
Thin Solids
25%
INIS
methacrylates
100%
flames
100%
buoyancy
100%
space vehicles
66%
fires
33%
data
22%
testing
22%
space
22%
environment
22%
solids
22%
safety
22%
gravitation
22%
low pressure
22%
habitat
11%
comparative evaluations
11%
applications
11%
surfaces
11%
correlations
11%
design
11%
reduction
11%
velocity
11%
cotton
11%
air flow
11%
extrapolation
11%
heat
11%
overpressure
11%
nasa
11%
slabs
11%
flow rate
11%
convection
11%
flammability
11%
fiberglass
11%
slowdown
11%