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Flame dynamics in oscillating flows under autoignitive conditions
Sili Deng
, Peng Zhao
,
Michael Edward Mueller
,
Chung King Law
Mechanical & Aerospace Engineering
High Meadows Environmental Institute
Princeton Institute for Computational Science and Engineering
Princeton Materials Institute
Research output
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Contribution to journal
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Article
›
peer-review
10
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Scopus citations
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Keyphrases
Autoignition
100%
Flame Dynamics
100%
Oscillatory Flow
100%
Oscillation Frequency
50%
Tribrachial Flame
50%
Dimethyl Ether
33%
Flow Velocity
33%
Inlet Velocity
33%
Unsteady Case
33%
Autoignition Fronts
33%
Residence Time
16%
Elevated Temperature
16%
Steady State
16%
Non-premixed
16%
Elevated Pressure
16%
Flame Propagation
16%
Heat Release
16%
Fire Chemistry
16%
Hysteretic
16%
Coflow
16%
Coflow Flames
16%
Steady Flow
16%
Detailed Chemistry
16%
Thermal Structure
16%
Flow Dynamics
16%
Low Velocity
16%
Reacting Flow
16%
Displacement Velocity
16%
Hysteretic Behavior
16%
Air Coflow
16%
Oscillation Cycle
16%
Flow Oscillation
16%
Induction Time
16%
Velocity Oscillation
16%
Combustion Mode Transition
16%
Heat Accumulation
16%
Normalized Displacement
16%
Flow Transition
16%
Finite Induction
16%
Hydrodynamic Change
16%
Dominant Pathway
16%
Velocity Limits
16%
Engineering
Autoignition
100%
Oscillating Flow
100%
Inlet Velocity
25%
Flow Velocity
25%
Elevated Temperature
12%
Elevated Pressure
12%
Hydrodynamics
12%
Flame Propagation
12%
Heat Release
12%
Combustion Mode
12%
Steady Flow
12%
Flow Dynamics
12%
Reacting Flow
12%
Oscillation Cycle
12%
Induction Time
12%
Harmonics
12%
Chemistry
Spontaneous Combustion
100%
Chemistry
75%
Dimethyl Ether
25%
Flow Dynamics
12%
Hydrodynamics
12%