This content is not included in
your SAE MOBILUS subscription, or you are not logged in.
A Study on the Time and Space Resolved Measurement of Flame Temperature and Soot Concentration in a D. I. Diesel Engine by the Two-Color Method
Annotation ability available
Sector:
Language:
English
Abstract
The two-color method regarding the visible wavelength radiation from soot particles in flames was closely studied in order to establish it as a measuring technique of the flame temperature and soot concentration in diesel engines.
The accuracy of the temperature calibration of the measuring equipment was assured by a newly developed high temperature black body furnace and a standard tungsten lamp. The emissivity of diesel flames, which is the most important value in this method, was investigated through both the spectroscopic analysis of soot sampled from a diesel flame and the comparative measurements between the two-color method and the emission-absorption method.
The examined two-color method was applied to a direct injection diesel engine. The time and space resolved values of temperature and soot concentration were obtained for the first time.
Recommended Content
Authors
Citation
Matsui, Y., Kamimoto, T., and Matsuoka, S., "A Study on the Time and Space Resolved Measurement of Flame Temperature and Soot Concentration in a D. I. Diesel Engine by the Two-Color Method," SAE Technical Paper 790491, 1979, https://doi.org/10.4271/790491.Also In
References
- Lyn W.T. “Diesel Combustion Study by Infra-Red Emission Spectroscopy.” J.Inst.Petrol. 43-398 1957 25
- Uyehara O.A. Myers P.S. Watson K.M. Wilson L.A. “Flame-Temperature Measurements in Internal-Combustion Engines.” Trans. ASME 68-1 1946 17
- Uyehara O.A. Myers P.S. Watson K.M. Wilson L.A. “Diesel Combustion Temperatures - The Influence of Operating Variables.” Trans. ASME 69-5 1947 465
- Garner F.H. O.B.E. Morton Frank Saunby J.B. “Pre-Flame Reaction in Diesel Engines.” J.Inst.Petrol. 47-450 1961 175
- Flynn P. Mizusawa M. Uyehara O.A. Myers P.S. “An Experimental Determination of the Instantaneous Potential Radiant Heat Transfer Within an Operating Diesel Engine.” SAE Paper, 720022 1972
- Baker H.D. Ryder E.A. “Temperature Measurement in Engineering.” 2 1961 403 John Willy and Sons
- Schack A. “Temperaturdifferenz zwischen Flamme und Kohlenstoffteilchen.” Z.Techn.Phys. 6-10 1925 530
- Millikan R.C. “Measurement of Particle and Gas Temperature in a Slightly Luminous Premixed Flame.” J.Opt.Soc.Amer. 51-5 1961 535
- Hottel H.G. Broughton F.P. “Determination of True Temperature and Total Radiation from Luminous Gas Flame.” Ind.and Engng.Chem. 4-2 1932 166
- Becker A. “Über die Strahlung und Temperatur der Hefner-Lampe.” Ann.Phys. 28 1909 1017
- Siddall R.G. McGrath I.A. “The Emissivity of Luminous Flames.” 9th Symp.on Comb. 1963 102
- D'Alessio A. Di Lorenzo A. Beretta F. Venitozzi C. “Optical and Chemical Investigations on Fuel-Rich Methane-Oxygen Premixed Flames at Atmospheric Pressure.” 14th Symp.on Comb. 1973 941
- Gaydon A.G. Wolfhard H.G. “Flames.” 1970 143 Chapman and Hall
- Gaydon A.G. “The Spectroscopy of Flames,” 1957 113 Chapman and Hall
- Beder E.C. Bass C.D. Shackleford W.L. “Transmissivity and Absorption of Fused Quartz Between 0.22μ and 3.5μ from Room Temperature to 1500°C.” Appl.Opt. 10-10 1971 2263
- De Vos J.C. “A New Determination of the Emissivity of Tungsten Ribbon.” Physica 20 1954 690
- Larrabee R.D. “Spectral Emissivity of Tungsten,” J.Opt.Soc.Amer. 49-6 1959 619
- Yagi S. Kawai S. “Studies on Luminous Flame.” J.Soc.Chem.Ind.Japan 40-4 1937 144
- Millar G.H. Winaus J.G. “A Fast, Electro-Optical, Hot-Gas Pyrometer.” J.Opt.Soc.Amer. 43-7 1953 609