Combustion dynamics and control: Progress and challenges
By S. Candel. 2002
827 citations recorded by the source corpus.
Subfields: Aerospace Engineering, Computational Mechanics, Fluid Flow and Transfer Processes
View Paper: https://www.semanticscholar.org/paper/8cce1c40137a911dbf32b5f1d10305651fa30e08
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In Aerospace Engineering
In Computational Mechanics
In Fluid Flow and Transfer Processes
Citations in the corpus
- Dynamics and control of premixed combustion systems based on flame transfer and describing functions (2020, background): “(1993); Candel (2002); Dowling & Morgans (2005); Lieuwen & Yang (2005); Culick (2006); Huang & Yang (2009); Gicquel et al. (2012); O’Connor et al. (2015); Poinsot (2017); Juniper & Sujith (2018) and in the books from Poinsot & Veynante (2011) and Lieuwen (2012). One of the striking features in these”
- Thermoacoustic Instability Considerations for High Hydrogen Combustion in Lean Premixed Gas Turbine Combustors: A Review (2021, background): “Combustion instability driving mechanisms refer to those physical processes which generate flow perturbations leading to unsteadiness in the flame front and oscillatory heat release [23].”
- Loss of Chaos in Combustion Noise as a Precursor of Impending Combustion Instability (2013, background): “Since only a small fraction of the available energy from combustion is sufficient to drive such instabilities and the corresponding attenuation in the combustion chambers is weak, large amplitude pressure oscillations are easily established in these systems resulting in performance losses, reduced o”
- Flow–flame interactions causing acoustically coupled heat release fluctuations in a thermo-acoustically unstable gas turbine model combustor (2010, background): “Candel [4] identified eleven different flow and combustion processes that could lead to instabilities in different situations.”
- Flame Dynamics and Combustion Noise: Progress and Challenges (2009, background): “The flow inside the chamber then generally evolves into a self-sustained oscillations accompanied by strong noise production inside the chamber (Candel (2002)) also leading to modifications of the radiated spectrum in the farfield region.”
- Intermittency route to thermoacoustic instability in turbulent combustors (2014, background): “Such combustion-driven oscillations are detrimental and result in performance losses, reduced operational range, wear and tear, and fatigue failure of the combustor walls due to increased heat transfer (McManus, Poinsot & Candel 1993; Candel 2002).”
- Active Combustion Control Using a Fluidic Oscillator for Asymmetric Fuel Flow Modulation (2008, background): “Active control schemes have proven to be very effective in damping combustion oscillations [6–10].”
- Time domain simulations of nonlinear thermoacoustic behaviour in a simple combustor using a wave-based approach (2015, background): “The stability of a combustion chamber is determined by the balance between the energy gain from the heat released from unsteady combustion and the dissipation due to the viscous thermal damping [6,5], radiation from the boundaries [7] and various relaxation processes in flows with particles or dropl”
- Combining a Helmholtz solver with the flame describing function to assess combustion instability in a premixed swirled combustor (2013, background): “More recent investigations are reviewed by Candel (2002).”
- Multifractality in combustion noise: predicting an impending combustion instability (2014, background): “The topics of combustion noise and combustion instability both figure fairly prominently in the combustion literature (see for example Strahle 1978; McManus et al. 1993; Candel 2002; Culick 2006; Candel et al. 2009; Schwarz & Janicka 2009 for extensive reviews on the topics).”