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TECHNICAL PAPERS: Radiative Heat Transfer

Temperature Measurements Using a High-Temperature Blackbody Optical Fiber Thermometer

[+] Author and Article Information
David G. Barker, Matthew R. Jones

Department of Mechanical Engineering, Brigham Young University, 435 CTB, PO Box 24201, Provo, UT 84602-4201

J. Heat Transfer 125(3), 471-477 (May 20, 2003) (7 pages) doi:10.1115/1.1571085 History: Received September 25, 2002; Revised February 04, 2003; Online May 20, 2003
Copyright © 2003 by ASME
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References

Dils,  R. R., 1983, “High-Temperature Optical Fiber Thermometry,” J. Appl. Phys., 54, p. 1198.
Fang,  X., May,  R. G., Wang,  A., and Claus,  R. O., 1994, “A Fiber-Optic High-Temperature Sensor,” Sens. Actuators A, 44(1), pp. 19–24.
Jones, M. R., Farmer, J. T., and Breeding, S. P., 1999, “Evaluation of the Use of Optical Fiber Thermometers for Thermal Control of the Quench Module Insert,” Proceedings of the Thermal & Fluids Analysis Workshop, NASA/CP-2002-21 pp. 1–16.
Tsai, B. K., Meyer, C. W., and Lovas, F. J., 2000, “Characterization of Lightpipe Radiation Thermometers for the NIST Test Bed,” 8th International Conference on Advanced Thermal Processing of Semiconductors, Gaithersburg, MD, pp. 83–93.
Jones,  M. R., and Barker,  D. G., 2002, “Use of Blackbody Optical Fiber Thermometers in High Temperature Environments,” AIAA. Thermophys. Heat Transfer, 16(3), pp. 306–312.
Barker, D. G., and Jones, M. R., “A Hybrid Inverse Method for Predicting the Temperature Profile Along a Blackbody Optical Fiber Thermometer,” Proceedings of IMECE: 2002 International Mechanical Engineering Conference and Exposition, November 17–22, 2002, New Orleans, LA., IMECE2002-39551.
Barker, D. G., and Jones, M. R., 2002, “Inversion of Spectral Emission Measurements to Reconstruct the Temperature Profile Along a Blackbody Optical Fiber Thermometer,” to appear in Inverse Probl. Eng. .
McCluney, W. R., 1994, Introduction to Radiometry and Photometry, Artech House, Boston, MA.
DeWitt, D. P., and Nutter, G. D., 1988, Theory and Practice of Radiation Thermometry, John Wiley and Sons, New York.
National Institute of Standards and Technology, 2002, Radiation Thermometry Short Course, Gaithersburg, MD.
Brewster, M. Q., 1992, Thermal Radiative Transfer and Properties, John Wiley & Sons, New York, pp. 218–249, Chap. 7.
Barker, D. G., 2003, “Reconstruction of the Temperature Profile Along a Blackbody Optical Fiber Thermometer,” M.S. thesis, Brigham Young University, Provo, UT.
Gryvnak,  D. A., and Burch,  D. E., 1965, “Optical and Infrared Properties of Al2O3 at Elevated Temperatures,” J. Opt. Soc. Am., 55(6), pp. 625–629.
Oppenheimer,  U. P., and Even,  U., 1962, “Infrared Properties of Sapphire at Elevated Temperatures,” J. Opt. Soc. Am., 52(9), pp. 1078–1079.
Özişik, M. N., and Orlande, H. R. B., 2000, Inverse Heat Transfer, Taylor & Francis, New York, pp. 1–111, Chap. 1–2.
Polak, E., 1971, Computational Methods in Optimization, Academic Press, New York.
Stoer, J., Bulirsch, R., 1980, Introduction to Numerical Analysis, Springer-Verlag, New York.
Press, William H., et al., 1999, Numerical Recipes in C, Second Edition, Cambridge University Press.
Krieder, K. G., 1985, “Fiber-Optic Thermometry,” Applications of Radiation Thermometry, ASTM STP 895, Philadelphia, pp. 151–161.

Figures

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Schematic of a typical blackbody optical fiber thermometer
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Path length due to internal reflection
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Schematic of the experimental apparatus
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Available data on the spectral absorption coefficient for sapphire
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Normalized squared ith component of the predicted uncertainty
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(a) Temperature profile reconstruction and (b) predicted and measured spectral signal values for a furnace setting of 1366 K (Run 1)
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(a) Temperature profile reconstruction and (b) predicted and measured spectral signal values for a furnace setting of 1331 K (Run 1)
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(a) Simulated temperature profile reconstruction and (b) predicted and measured spectral signal values for a furnace setting of 1331 K with an increased signal-to-noise ratio and decreased SME uncertainty

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