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Response of counterflow diffusion flames to oscillating strain rates
H. G. Im
,
Chung King Law
, J. S. Kim
, F. A. Williams
Mechanical & Aerospace Engineering
High Meadows Environmental Institute
Princeton Materials Institute
Research output
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Contribution to journal
›
Article
›
peer-review
86
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Dive into the research topics of 'Response of counterflow diffusion flames to oscillating strain rates'. Together they form a unique fingerprint.
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Keyphrases
Counterflow Diffusion Flame
100%
Strain Rate
100%
Near Extinction
50%
Oscillation
50%
Finite-rate Chemistry
33%
Net Heat Release
33%
Quasi-steady
16%
Diffusion Flame
16%
Residence Time
16%
Counterflow Flame
16%
Flame Structure
16%
Large Activation Energy Asymptotics
16%
Linear Analysis
16%
Near-equilibrium
16%
Diffusion Layer
16%
Dynamic Effects
16%
Diffusion Time
16%
Turbulent Combustion
16%
Fluid Dynamics
16%
Acoustic Instability
16%
Rocket Engine
16%
Flame Response
16%
Rayleigh Criterion
16%
Overtaking
16%
Convective Zone
16%
Combustion Instability
16%
Oscillation Time
16%
Schumann
16%
Unsteady Characteristics
16%
Flow Field Variation
16%
Convective Mass Flux
16%
Mean Strain Rate
16%
Engineering
Diffusion Flame
100%
Strain Rate
100%
Convective
28%
Diffusive
28%
Heat Release
28%
Activation Energy
14%
Potential Application
14%
Linear Analysis
14%
Increasing Strain
14%
Diffusion Time
14%
Rocket Engine
14%
Fluid Dynamics
14%
Dynamic Effect
14%
Rayleigh Criterion
14%
Oscillation Time
14%
Flow Distribution
14%
Mass Transport
14%
Physics
Strain Rate
100%
Diffusion Flame
100%
Chemistry
28%
Flow Distribution
14%
Activation Energy
14%
Acoustic Instability
14%
Convective Zones
14%
Turbulent Combustion
14%
Rocket Engine
14%
Combustion Stability
14%
Mass Transport
14%
Fluid Dynamics
14%