Physics in combustion research
DOI: 10.1063/1.3069239
Virtually all the energy we derive from fossil fuels is obtained through some form of combustion. Any technical advance that can result in more efficient combustion systems without sacrificing environmental quality would therefore be a major contribution to energy conservation. For example, every one‐percent increase in auto engine combustion efficiency saves about 14.5 million barrels of oil per year, gaining the US over 150 million dollars per year in balance of payments. Although research in specific technological areas is usually difficult to justify from economic arguments, this is not the case for combustion research, as these figures show. The return on the investment pays for combustion research many times over. In addition, improved control of combustion processes should result in lower pollutant emissions and thereby reduce such hidden costs of burning fossil fuels as exhaust‐gas cleanup and damages to health and environment. However, combustion devices, like most other engineering systems, face performance limitations of an inherently scientific nature.
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References
1. J. B. Heywood, AIP Conference Proceedings No. 19, Physics and the Energy Problem—1974 (M. D. Fiske, W. W. Havens, Jr, eds.) American Institute of Physics, New York (1974);
I. Glassman, W. A. Sirignano, Summary Report of the Workshop on Energy‐Related Basic Combustion Research, Princeton University Department of Aerospace and Mechanical Sciences Report No. 1177 (1974).2. The Role of Physics in Combustion, (D. L. Hartley, D. R. Hardesty, M. Lapp, J. Dooher, F. Dryer, eds.) in AIP Conference Proceedings No. 25, Efficient Use of Energy, American Institute of Physics, New York (1975).
3. “Power Plants and Clean Air: The State of the Art,” Special Publication No. 6, Power Engineering Society, Institute of Electrical and Electronic Engineers, New York (1973).
4. F. A. Williams, Combustion Theory, Addison‐Wesley Publishing Co, Inc., Reading, Massachusetts (1965);
R. F. Fristrom, A. A. Westenberg, Flame Structure, McGraw‐Hill, New York (1965);
B. Lewis, G. von Elbe, Combustion, Flames and Explosions of Gases, Academic Press, New York (1961);
D. B. Spalding, Some Fundamentals of Combustion, Academic Press, London (1955).5. S. S. Penner, Quantitative Molecular Spectroscopy and Gas Emissivities, Addison‐Wesley Publishing Co., Inc., Reading Massachusetts (1959);
K. G. P. Sulzmann, J. E. L. Lowder, S. S. Penner, Combustion and Flame 20, 177 (1973).https://doi.org/CBFMAO6. J. D. Trolinger, Laser Applications in Flow Diagnostics, AGARDograph No. 186, NATO Advisory Group for Aerospace Research and Development (1974).
7. Laser Raman Gas Diagnostics, (M. Lapp, C. M. Penney, eds.), Plenum Press, New York (1974).
8. M. Lapp, D. L. Hartley, Combustion Science and Technology (to be published).
9. C. J. Vear, P. J. Hendra, J. J. Macfarlane, J. Chem. Soc. Chem. Commun. 7, 381 (1972); https://doi.org/JCCCAT
R. H. Barnes, C. E. Moeller, J. F. Kircher, C. M. Verber, Appl. Opt. 12, 2531 (1973).https://doi.org/APOPAI
More about the authors
Danny Hartley, Combustion Research Division of Sandia Laboratories, Livermore, California.
Donald Hardesty, Combustion Research Division of Sandia Laboratories, Livermore, California.
Marshall Lapp, Physicist, General Electric Research and Development Center, Schenectady, New York.
