- Flow structures and combustion regimes in an axisymmetric scramjet combustor with high Reynolds number
2024/11/25 by Tao Tang, Mingbo Sun, Bo Yan +6 · 2 citations
Chemistry · Engineering · #Chemistry #Combustion #Combustion and flame dynamics #Combustor #Computational Fluid Dynamics and Aerodynamics #Diffusion flame #Flame structure #Fluid Dynamics and Turbulent Flows #Jet (fluid) #Large eddy simulation #Laser #Laser-induced fluorescence #Materials science #Mechanics #Optics #Physics #Planar laser-induced fluorescence #Premixed flame #Reynolds number #Scramjet #Supersonic speed #Thermodynamics #Turbulence #Wake
- Revealing soot maturity based on multi-wavelength absorption/emission measurements in laminar axisymmetric coflow ethylene diffusion flames
2021/01/14 by Jérôme Yon, Juan José Cruz, J.J. Cruz +4 · 2 citations
Chemical Engineering · Chemistry · Engineering · Environmental Science · #Absorption (acoustics) #Advanced Combustion Engine Technologies #Air Quality and Health Impacts #Analytical Chemistry (journal) #Chemistry #Combustion #Combustor #Diffusion flame #Laminar flow #Materials science #Optics #Organic chemistry #Physics #Soot #Thermodynamics #Vehicle emissions and performance #Volume fraction #Wavelength
- Probing gas-to-particle transition in a moderately sooting atmospheric pressure ethylene/air laminar premixed flame. Part I: gas phase and soot ensemble characterization
2017/03/23 by Francesco Carbone, Kevin Gleason, Alessandro Gomez · 2 citations
Chemical Engineering · Chemistry · Earth and Planetary Sciences · Engineering · #Adiabatic flame temperature #Advanced Combustion Engine Technologies #Analytical Chemistry (journal) #Atmospheric chemistry and aerosols #Chemistry #Combustion #Combustion and flame dynamics #Diffusion flame #Laminar flow #Organic chemistry #Physical chemistry #Pyrometer #Soot #Temperature measurement #Thermodynamics #Volume fraction
- Probing gas-to-particle transition in a moderately sooting atmospheric pressure ethylene/air laminar premixed flame. Part II: Molecular clusters and nascent soot particle size distributions
2017/03/15 by Francesco Carbone, Sabrine Moslih, Alessandro Gomez · 5 citations
Chemical Engineering · Chemistry · Earth and Planetary Sciences · Engineering · #Advanced Combustion Engine Technologies #Aerosol #Analytical Chemistry (journal) #Atmospheric chemistry and aerosols #Atmospheric pressure #Chemistry #Combustion #Combustion and flame dynamics #Condensation #Diffusion flame #Laminar flow #Materials science #Meteorology #Organic chemistry #Particle (ecology) #Particle size #Physical chemistry #Soot #Thermodynamics #Volume fraction
- Comparison of multiple diagnostic techniques to study soot formation and morphology in a diffusion flame
2016/12/10 by M. Reza Kholghy, Mohammad Reza Kholghy, Yashar Afarin +11 · 4 citations
Chemical Engineering · Chemistry · Engineering · #Adiabatic flame temperature #Advanced Combustion Engine Technologies #Analytical Chemistry (journal) #Chemistry #Chromatography #Combustion #Combustion and flame dynamics #Combustor #Composite material #Diffusion #Diffusion flame #Emissivity #Laminar flow #Materials science #Optics #Particle (ecology) #Particle size #Pyrometer #Soot #Temperature measurement #Thermocouple #Thermodynamics #Vehicle emissions and performance #Volume fraction
- Soot formation with C1 and C2 fuels using an improved chemical mechanism for PAH growth
2013/10/17 by Victor Chernov, Murray J. Thomson, Seth B. Dworkin +2 · 7 citations
Chemical Engineering · Chemistry · Engineering · #Advanced Combustion Engine Technologies #Chemical engineering #Chemistry #Combustion #Combustion and flame dynamics #Combustor #Diffusion #Diffusion flame #Ethylene #Laminar flow #Methane #Organic chemistry #Oxygenate #Rocket and propulsion systems research #Soot #Thermodynamics
- A PAH growth mechanism and synergistic effect on PAH formation in counterflow diffusion flames
2013/04/05 by Yu Wang, Abhijeet Raj, Suk Ho Chung · 14 citations
Chemical Engineering · Chemistry · Engineering · #Advanced Combustion Engine Technologies #Benzene #Catalysis #Chemistry #Combustion #Combustion and flame dynamics #Coronene #Diffusion #Diffusion flame #Environmental chemistry #Ethylene #Heat transfer and supercritical fluids #Hydrocarbon #Molecule #Organic chemistry #Photochemistry #Propane #Soot #Thermodynamics
- A computational tool for the detailed kinetic modeling of laminar flames: Application to C2H4/CH4 coflow flames
2013/02/16 by Alberto Cuoci, Alessio Frassoldati, Tiziano Faravelli +2 · 2 citations
Chemical Engineering · Chemistry · Engineering · Mathematics · #Advanced Combustion Engine Technologies #Chemistry #Combustion #Combustion and Detonation Processes #Combustion and flame dynamics #Combustor #Computational fluid dynamics #Diffusion flame #Discretization #Laminar flow #Mathematics #Mechanics #Methane #Numerical diffusion #Physical chemistry #Physics #Soot #Thermodynamics #Work (physics)
- Sensitivity analysis of transfer functions of laminar flames
2011/06/21 by F. Duchaine, Florent Duchaine, F. Boudy +4 · 3 citations
Chemical Engineering · Chemistry · Engineering · #Adiabatic flame temperature #Advanced Combustion Engine Technologies #Chemistry #Combustion #Combustion and flame dynamics #Combustor #Diffusion flame #Duct (anatomy) #Fire dynamics and safety research #Flame speed #Flame structure #Inlet #Laminar flame speed #Laminar flow #Materials science #Mechanical engineering #Mechanics #Physical chemistry #Physics #Premixed flame #Sensitivity (control systems) #Thermodynamics #Transfer function
- Analyzing the effects of temperature on soot formation with a joint volume-surface-hydrogen model
2009/05/26 by Guillaume Blanquart, G. Blanquart, Heinz Pitsch +1 · 6 citations
Chemical Engineering · Chemistry · Earth and Planetary Sciences · Engineering · #Advanced Combustion Engine Technologies #Atmospheric chemistry and aerosols #Carbon fibers #Chemistry #Combustion #Combustion and flame dynamics #Composite material #Diffusion flame #Hydrogen #Laminar flow #Materials science #Nucleation #Organic chemistry #Physical chemistry #Reactivity (psychology) #Soot #Thermodynamics #Volume (thermodynamics) #Volume fraction
- Soot Surface Reactions in High-Temperature Laminar Diffusion Flames
2004/05/01 by A. M. El-Leathy, Abdelrahman El‐Leathy, C. H. Kim +3 · 1 citation
Chemical Engineering · Chemistry · Engineering · Materials Science · #Acetylene #Advanced Combustion Engine Technologies #Analytical Chemistry (journal) #Catalytic Processes in Materials Science #Chemistry #Combustion #Combustion and flame dynamics #Diffusion #Diffusion flame #Laminar flow #Materials science #Organic chemistry #Soot #Thermodynamics
- Quenching distance of laminar flame in aluminum dust clouds
1996/04/01 by S Goroshin, Samuel Goroshin, M Bidabadi +2 · 2 citations
Chemistry · Engineering · #Analytical Chemistry (journal) #Chemistry #Chromatography #Combustion #Combustion and Detonation Processes #Combustion and flame dynamics #Diffusion flame #Flame speed #Laminar flame speed #Laminar flow #Materials science #Mechanics #Optics #Oxygen #Particle Dynamics in Fluid Flows #Physics #Premixed flame #Quenching (fluorescence) #Turbulence