Research Papers: Air Emissions From Fossil Fuel Combustion

Time-Resolved Two-Dimensional Temperature Measurement From Acetylene-Oxygen Flame Using Chemical Seeding Spectrocamera

[+] Author and Article Information
Hiroyuki Oyama

Production Technology Team,
Methane Hydrate Research Center,
National Institute of Advanced Industrial Science and Technology (AIST),
2–17–2–1 Tsukisamu–Higashi,
Toyohiraku, Sapporo 062–8517, Japan
e-mail: h.oyama@aist.go.jp

Joe Kayahana

Hokkaido University,
Kita 13, Nishi 8, Kita–ku,
Sapporo 060–8628, Japan
e-mail: qqad76m9k@alpha.ocn.ne.jp

Shigeo Yatsu

Hokkaido University,
Kita 13, Nishi 8, Kita–ku,
Sapporo 060–8628, Japan
e-mail: sy@eng.hokudai.ac.jp

Kuniyuki Kitagawa

EcoTopia Science Institute Nagoya University,
Furo–Cho, Chikusa–ku,
Nagoya 464–8603, Japan
e-mail: kuni@esi.nagoya-u.ac.jp

Ashwani K. Gupta

The Combustion Laboratory,
Department of Mechanical Engineering,
University of Maryland,
College Park, MD 20742
e-mail: akgupta@umd.edu

1Corresponding author.

Contributed by the Advanced Energy Systems Division of ASME for publication in the JOURNAL OF ENERGY RESOURCES TECHNOLOGY. Manuscript received March 29, 2013; final manuscript received June 6, 2013; published online August 19, 2013. Editor: Hameed Metghalchi.

J. Energy Resour. Technol 136(1), 011101 (Aug 19, 2013) (7 pages) Paper No: JERT-13-1099; doi: 10.1115/1.4024916 History: Received March 29, 2013; Revised June 06, 2013

Precise knowledge on temperature and its fluctuation in combustion systems are among the important energy issues in almost all industrial sectors, energy conversion and power fields. In this study, a spectroscopic technique is used to measure the time-resolved temperature distribution by a comparatively simple optical system that involved two band-pass filters (BPF), and a charge-coupled device with image intensifier (ICCD) video camera. The system was assembled and applied to an acetylene-oxygen premixed flame that are widely used for welding purposes because of very high temperature in such flames. The temperature distribution and its fluctuation directly impact the quality of soldering. The results provided direct visualization of temperature and its fluctuation in the flames that are conjectured to emanate from thermal and hydrodynamic phenomena from chemical reactions in the flame and interaction with surrounding air.

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Bengtsson, P.-E., Martinsson, L., and Alden, M., 1995, “Combined Vibrational and Rotational CARS for Simultaneous Measurements of Temperature and Concentrations of Fuel, Oxygen, and Nitrogen,” Appl. Spectrosc., 49(2), pp. 188–192. [CrossRef]
Hancock, R. D., Bertagnolli, K. E., and Lucht, R. P., 1997, “Nitrogen and Hydrogen CARS Temperature Measurements in a Hydrogen/Air Flame Using a Near-Adiabatic Flat-Flame Burner,” Combust. Flame, 109(3), pp. 323–331. [CrossRef]
Haudiquert, M., Cessou, A., Stepowski, D., and Coppalle, A., 1997, “OH and Soot Concentration Measurements in a High-Temperature Laminar Diffusion Flame,” Combust. Flame, 111(4), pp. 338–349. [CrossRef]
Rothe, E. W., and Andresen, P., 1007, “Application of Tunable Excimer Lasers to Combustion Diagnostics: A Review,” Appl. Opt., 36(18), pp. 3971–4033. [CrossRef]
Griem, H. R., 1997, Principles of Plasma Spectroscopy, Cambridge Monographs on Plasma Physics, Vol. 2, Cambridge University Press, Cambridge, UK.
Yatsu, S., Oyama, H., Mizuno, T., Kimura, H., Kitagawa, K., and Kayukawa, N., 2003, “Atomic Emission Spectrometry for Profiling High Temperatures in Combustion System,” J. Propulsion Power, 19(5), pp. 847–852. [CrossRef]
Kubota, M., Tsuge, S., Kitagawa, K., Arai, N., Ushigome, N., and Kato, Y., 1998, “Analysis of Degradation Processes of Carbon/Carbon Composites in a High Temperature Chemical Fame by a Spectrovideo Camera,” Carbon, 36(12), pp. 1783–1790. [CrossRef]
Corliss, C. H., and Bozmann, C. H., 1962, “Experimental Transition Probabilities for Spectral Lines of Seventy Elements; Derived from the NBS Tables of Spectral-Line Intensities,” U.S. Government Printing Office, Washington, DC.
Niitsuma, H., and Kanatani, K., 2009, “New Optimal Holography Computation Algorithm,” 169 CVIM, IPSJ SIG Technical Report (in Japanese).
Rosenfeld, A., and Avinash, C. K., 1982, Two-Dimensional Imaging, 2nd ed., Vol. 1, Prentice-Hall, Upper Saddle River, NJ.
Griem, H. R., 1964, Plasma Spectroscopy, McGraw-Hill, New York.
Yamashita, H., Djamrak, D., and Takeno, T., 1999, “Role of Elementary Reactions in Flame Structure and Unsteady Behavior of Two-Dimensional Fuel Jet Diffusion Flame,” JSME Int. J. Ser. B, 42(4), pp. 699–707. [CrossRef]
Guahk, Y. T., Lee, D. K., Oh, K. C., and Shin, H. D., 2009, “Flame-Intrinsic Kelvin-Helmholtz Instability of Flickering Premixed Flames,” Energy Fuels, 23, pp. 3875–3884. [CrossRef]
Desmira, N., Nagasaka, T., Narukawa, K., Ishikawa, A., Kitagawa, K., and Gupta, A. K., 2013, “Spectroscopic Observation of Chemical Species from High Temperature Air Pulverized Coal Combustion,” ASME J. Energy Resourc. Technol., 135(3), p. 034503. [CrossRef]
Gupta, A. K., Bolz, S., and Hasegawa, T., 1999, “Effect of Air Preheat and Oxygen Concentration on Flame Structure and Emission,” ASME J. Energy Resour. Technol., 121, pp. 209–216. [CrossRef]
Sen, Q., Miyata, Y., Morita, S., Baba, Y., Kitagawa, K., and Gupta, A. K., 2013, “Visualization of Two-Dimensional Excitation Temperatures in CH4/N2/Ar Plasmas for Preparation of Carbonaceous Materials,” ASME J. Energy Resour. Technol., 135(3), p. 034501. [CrossRef]
Khalil, A. E., Gupta, A. K., Bryden, K. M., and Lee, S. C., 2012, “Mixture Preparation Effects on Distributed Combustion for Gas Turbine Applications,” ASME J. Energy Resour. Technol., 134(3), p. 032201. [CrossRef]


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Fig. 1

A schematic diagram of the burner and diagnostic system

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Fig. 2

Schematic diagram of the process used for image data processing

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Fig. 5

Time-averaged temperature distribution in the 640 × 150 ROI

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Fig. 6

Spectrum of the chromium triplet at the shorter wavelength (Cr1)

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Fig. 7

Spectrum of the chromium triplet at the longer wavelength (Cr2)

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Fig. 8

Excitation temperature (Kelvin) in the measurement section

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Fig. 3

Characteristic observed images: (i) test pattern image, (ii) standard tungsten lamp image, (iii) fluorescent light image, (iv) ICCD video dark current image, (v) Cr triplet image, and (vi) background of flame, respectively. All image sizes were 640 × 480 pixels.

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Fig. 4

Time-averaged chromium triplet light image: upper side Cr1, lower side Cr2. Flame flow from right to left.

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Fig. 9

Time-resolved image set, taken at a rate of 30 frames/s. (a) 0 s, (b) 0.33 s, (c) 0.66 s, (d) 0.99 s, (e) 1.32 s, and (f) 1.65 s, respectively. Upper and lower sides of these images show Cr1 and Cr2 triplet lights in all the images.

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Fig. 10

Time-resolved temperature distribution. The measurement time correspond to Fig. 9: (a) 0 s, (b) 0.33 s, (c) 0.66 s, (d) 0.99 s, (e) 1.32 s, and (f) 1.65 s, respectively. The ROI image is the same as in Fig. 8.



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