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Low-order modeling of can-annular combustors
Guillaume J.J. Fournier
, Max Meindl
, Camilo F. Silva
, Giulio Ghirardo
, Mirko R. Bothien
,
Wolfgang Polifke
Associate Professorship of Thermo-Fluid Dynamics
Technical University of Munich
Ansaldo Energia Switzerland AG
Zurich University of Applied Sciences
Research output
:
Contribution to journal
›
Article
›
peer-review
20
Scopus citations
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Keyphrases
Low-rank Model
100%
Can-annular Combustor
100%
Reflection Coefficient
66%
Annular Gap
66%
Combustor
33%
Two Dimensional
33%
Plenum
33%
Hermann Von Helmholtz
33%
Geometrical Parameters
33%
Design of Experiments
33%
Study Review
33%
Eigenfrequency
33%
Heavy-duty
33%
Gas Turbine
33%
Two-dimensional Simulation
33%
Land-based
33%
Flow Parameters
33%
Acoustic Mode
33%
Thermoacoustics
33%
Discrete Rotational Symmetry
33%
Conductivity Model
33%
Turbine Stage
33%
Rayleigh Conductivity
33%
Thin Annulus
33%
Modeling Approaches
33%
Bloch Wave Theory
33%
Validity Limit
33%
Engineering
Annular Combustor
100%
Two Dimensional
66%
Characteristic Length
66%
Annular Gap
66%
Reflectance
66%
Combustor
33%
Helmholtz's Law
33%
Design of Experiments
33%
Crosstalk
33%
Flow Parameters
33%
Eigenfrequencies
33%
Geometrical Parameter
33%
Gas Turbine
33%
Acoustic Mode
33%
Limit of Validity
33%
Rotational Symmetry
33%
Mathematics
Reflection Coefficient
100%
Characteristic Length
100%
Rayleigh
50%
Modeling Approach
50%
Rotational Symmetry
50%
Experiment Design
50%
Combustor
50%
Physics
Combustion Chamber
100%
Reflectance
66%
Acoustics
33%
Flow Parameters
33%
Gas Turbine
33%
Conductance
33%
Design of Experiments
33%