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Original Articles

Temperatures within Non-premixed Flames: Effects of Rapid Mixing Due to Swirl

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Pages 143-162 | Received 18 Mar 1988, Accepted 18 Mar 1988, Published online: 27 Apr 2007

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Read on this site (14)

V. Mahendra Reddy, Darshan Trivedi, Darshan Sawant & Sudarshan Kumar. (2015) Investigations on Emission Characteristics of Liquid Fuels in a Swirl Combustor. Combustion Science and Technology 187:3, pages 469-488.
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A.R. Masri, P.A. M. Kalt, Y.M. Al-Abdeli & R.S. Barlow. (2007) Turbulence–chemistry interactions in non-premixed swirling flames. Combustion Theory and Modelling 11:5, pages 653-673.
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YASIRM. AL-ABDELI*ASSAADR. MASRI. (2007) TURBULENT SWIRLING NATURAL GAS FLAMES: STABILITY CHARACTERISTICS, UNSTEADY BEHAVIOR AND VORTEX BREAKDOWN. Combustion Science and Technology 179:1-2, pages 207-225.
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ANDRÉW. MARSHALL*ASHWANIK. GUPTA. (2004) THERMAL BEHAVIOR OF COSWIRLING FLAMES. Combustion Science and Technology 176:3, pages 437-451.
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Yasir M Al-Abdeli1 & Assaad R Masri. (2003) Stability characteristics and flowfields of turbulent non-premixed swirling flames. Combustion Theory and Modelling 7:4, pages 731-766.
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Francine Battaglia, Kevin Mcgrattan, Ronald Rehm & Howard Baum. (2000) Simulating fire whirls. Combustion Theory and Modelling 4:2, pages 123-138.
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R. Bhidayasiri, S. Sivasegaram & J. H. Whitelaw. (1997) The Effect of Flow Boundary Conditions on the Stability of Quarl-Stabilised Flames. Combustion Science and Technology 123:1-6, pages 185-205.
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RUEY-HUNG CHEN. (1996) NOx and NO2 Emission of Swirl-Stabilized Nonpremixed Flames of a H2—CH4 Mixture. Combustion Science and Technology 120:1-6, pages 321-333.
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O. DELABROY, F. LACAS, T. POINSOT, S. CANDEL, T. HOFFMANN, J. HERMANN, S. GLEIS & D. VORTMEYER. (1996) A Study of NOx Reduction by Acoustic Excitation in a Liquid Fueled Burner. Combustion Science and Technology 119:1-6, pages 397-408.
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J.-T. YANG & C.-W. YEN. (1996) Reacting Flow Over a Non-Traditional Flame Stabilizer. Combustion Science and Technology 112:1, pages 95-116.
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L. G. BLEVINS & J. P. GORE. (1995) A Study of Radiant Tube Flame Structure and NOx Emissions. Combustion Science and Technology 109:1-6, pages 255-271.
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D. SHEN, J.-M. MOST, P. JOULAIN & J.-S. BACHMAN. (1994) The Effect of Initial Conditions for Swirl Turbulent Diffusion Flame with a Straight‐Exit Burner. Combustion Science and Technology 100:1-6, pages 203-224.
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RUEY-HUNG CHEN, JAMESF. DRISCOLL, J. KELLY, M. NAMAZIAN & R. W. SCHEFER. (1990) A Comparison of Bluff-Body and Swirl-Stabilized Flames. Combustion Science and Technology 71:4-6, pages 197-217.
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Articles from other publishers (32)

Tao Zhou & Feng Li. (2024) Large eddy simulation of non-premixed flame behavior and NOx emission characteristics in a staged combustor with multi-swirling flows. Applied Thermal Engineering 246, pages 123020.
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Adam J. Gee, Neil Smith, Alfonso Chinnici & Paul R. Medwell. (2024) Characterisation of turbulent non-premixed hydrogen-blended flames in a scaled industrial low-swirl burner. International Journal of Hydrogen Energy 49, pages 747-757.
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Benjamin W. Keeton, Keiko K. Nomura, Antonio L. Sánchez & Forman A. Williams. (2023) A computational investigation of swirl-number and Damköhler-number effects on non-premixed laminar swirling jet flames. Combustion and Flame 258, pages 113075.
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Benjamin W. Keeton, Keiko K. Nomura, Antonio L. Sánchez & Forman A. Williams. (2023) Vortex breakdown in swirling Burke–Schumann flames. Proceedings of the Combustion Institute 39:2, pages 1635-1645.
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Georgi Hristov, Phillip J. Ansell, Joseph W. Zimmerman & David L. Carroll. (2022) Swirl Characterization of a Cyclotronic Arc Plasma Actuated Axial Air Jet. Swirl Characterization of a Cyclotronic Arc Plasma Actuated Axial Air Jet.
Marco Osvaldo Vigueras-Zúñiga, Carlos Augusto Ramírez-Ruíz, Agustín L. Herrera-May & María Elena Tejeda-del-Cueto. (2021) Numerical and Experimental Analysis of the Effect of a Swirler with a High Swirl Number in a Biogas Combustor. Energies 14:10, pages 2768.
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Vladimir Dulin, Aleksei Lobasov, Dmitriy Markovich & Sergey Alekseenko. 2019. Swirling Flows and Flames. Swirling Flows and Flames.
Sriram Bharath Hariharan, Paul M. Anderson, Huahua Xiao, Michael J. Gollner & Elaine S. Oran. (2019) The blue whirl: Boundary layer effects, temperature and OH* measurements. Combustion and Flame 203, pages 352-361.
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Xunchen Liu, Guoqing Wang, Jianyi Zheng, Liangliang Xu, Sirui Wang, Lei Li & Fei Qi. (2018) Temporally resolved two dimensional temperature field of acoustically excited swirling flames measured by mid-infrared direct absorption spectroscopy. Optics Express 26:24, pages 31983.
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Xuren Zhu, Renfu Li, Dinggen Li, Peng Zhang & Renzhang Qian. (2015) Experimental study and RANS calculation on velocity and temperature of a kerosene-fueled swirl laboratory combustor with and without centerbody air injection. International Journal of Heat and Mass Transfer 89, pages 964-976.
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Nazim Merlo, Toufik Boushaki, Christian Chauveau, Stéphanie De Persis, Laure Pillier, Brahim Sarh & Iskender Gökalp. (2014) Combustion characteristics of methane–oxygen enhanced air turbulent non-premixed swirling flames. Experimental Thermal and Fluid Science 56, pages 53-60.
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A.V. Singh, A. Eshaghi, M. Yu, A.K. Gupta & K.M. Bryden. (2014) Simultaneous time-resolved fluctuating temperature and acoustic pressure field measurements in a premixed swirl flame. Applied Energy 115, pages 116-127.
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Choong Hoon Lee. (2013) New Methods to Evaluate Diesel Smoke from Inspection/Maintenance Vehicles Using Integration of Smoke Emissions over a Measurement Cycle of Snap-Acceleration Test at no Load. Applied Mechanics and Materials 319, pages 419-426.
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Rong F. Huang & Shun C. Yen. (2008) Aerodynamic characteristics and thermal structure of nonpremixed reacting swirling wakes at low Reynolds numbers. Combustion and Flame 155:4, pages 539-556.
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Khaled M. Shebl. (2008) Experimental Blowout Limits and Computational Flow Field of Axial Single and Multijet Flames. Journal of Engineering for Gas Turbines and Power 130:5.
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P.R. Bhoi & S.A. Channiwala. (2008) Optimization of producer gas fired premixed burner. Renewable Energy 33:6, pages 1209-1219.
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Andrea Olivani, Giulio Solero, Fabio Cozzi & Aldo Coghe. (2007) Near field flow structure of isothermal swirling flows and reacting non-premixed swirling flames. Experimental Thermal and Fluid Science 31:5, pages 427-436.
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Chang-Eon Lee & Cheol-Hong Hwang. (2007) An experimental study on the flame stability of LFG and LFG-mixed fuels. Fuel 86:5-6, pages 649-655.
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Q.W. Zhao, C.K. Chan & H.F. Zhao. (2004) Numerical simulation of open swirl-stabilized premixed combustion. Fuel 83:11-12, pages 1615-1623.
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Huy T. Hoang & Hamid R. Rahai. (2002) The Distortion of a Jet by Coil Inserts. Journal of Fluids Engineering 124:2, pages 500-504.
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Jun Ji & Jay Gore. (2001) Combustion instabilities in an advanced turbine system premixer. Combustion instabilities in an advanced turbine system premixer.
H. Hoang, M. Almoukdad & H. Rahai. (2001) The effects of coil insert length on mixing enhancement of a round jet. The effects of coil insert length on mixing enhancement of a round jet.
H.R. Rahai, H.T. Vu & M.H. Shojaee Fard. (2001) Mixing enhancement using a coil insert. Applied Thermal Engineering 21:3, pages 303-309.
Crossref
A.R. Masri, S.B. Pope & B.B. Dally. (2000) Probability density function computations of a strongly swirling nonpremixed flame stabilized on a new burner. Proceedings of the Combustion Institute 28:1, pages 123-131.
Crossref
T.S. Cheng, Y.-C. Chao, D.-C. Wu, T. Yuan, C.-C. Lu, C.-K. Cheng & J.-M. Chang. (1998) Effects of fuel-air mixing on flame structures and NOx emissions in swirling methane jet flames. Symposium (International) on Combustion 27:1, pages 1229-1237.
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D. W. Guillaume & J. C. LaRue. (1997) The Effect of Induced Swirl on Mixing. Journal of Fluids Engineering 119:2, pages 471-473.
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David A. Everest, James F. Driscoll, Werner J.A. Dahm & Douglas A. Feikema. (1995) Images of the two-dimensional field and temperature gradients to quantify mixing rates within a non-premixed turbulent jet flame. Combustion and Flame 101:1-2, pages 58-68.
Crossref
D. F. G. Durão, E. C. Fernandes, M. V. Heitor & A. L. N. Moreira. 1993. Laser Techniques and Applications in Fluid Mechanics. Laser Techniques and Applications in Fluid Mechanics 470 489 .
R. PITZ, T. CHENG, S. MARCH & J. WEHRMEYER. (1991) Effect of swirl on finite-rate chemistry in lifted jet diffusion flames. Effect of swirl on finite-rate chemistry in lifted jet diffusion flames.
Ruey-Hung Chen & James F. Driscoll. (1991) Nitric oxide levels of jet diffusion flames: Effects of coaxial air and other mixing parameters. Symposium (International) on Combustion 23:1, pages 281-288.
Crossref
Douglas Feikema, Ruey-Hung Chen & James F. Driscoll. (1990) Enhancement of flame blowout limits by the use of swirl. Combustion and Flame 80:2, pages 183-195.
Crossref
DOUGLAS FEIKEMA, RUEY CHEN & JAMES DRISCOLL. (1989) Enhancement of flame blowout limits by the use of swirl. Enhancement of flame blowout limits by the use of swirl.

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