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Inverse heat conduction[edit]
Early publications on inverse heat conduction arose from determining surface heat flux during atmospheric re-entry from buried temperature sensors.[1] [2] Other applications where surface heat flux is needed but surface sensors are not practical include: inside reciprocating engines, inside rocket engines; and, testing of nuclear reactor components.[3] A variety of numerical techniques have been developed to address the ill-posedness and sensitivity to measurement error caused by damping and lagging in the temperature signal.[4][5][6]
References[edit]
- ^ Shumakov, N. V. (1957). "A method for the experimental study of the process of heating a solid body". Soviet Physics –Technical Physics (translated by American Institute of Physics). 2: 771.
- ^ Stolz, G., Jr. (1960). "Numerical solutions to an inverse problem of heat conduction for simple shapes". J. Heat Transfer. 82.
{{cite journal}}: Text "pages 20-26" ignored (help)CS1 maint: multiple names: authors list (link) - ^ {{Cite book | author1 = Beck, J. V. | author2 = Blackwell, B. |author3 = St. Clair, C. R., Jr., | title = Inverse Heat Conduction. Ill‐Posed Problems | location = New York | publisher = J. Wiley & Sons | year = 1985 | isbn = 0‐471‐08319‐4
- ^ Beck, J. V.; Blackwell, B.; Haji-Sheikh, B. (1996). "Comparison of some inverse heat conduction methods using experimental data". Int. J. Heat and Mass Transfer. 39 (17): 3649–3657. doi:10.1016/0017-9310(96)00034-8.
- ^ Ozisik, M. N.; Orlande, H. R. B. Inverse Heat Transfer, Fundamentals and Applications. Taylor and Francis. ISBN 1-56032-838-X.
{{cite book}}: Text "year 2000" ignored (help) - ^ Inverse Engineering Handbook, edited by K. A. Woodbury. CRC Press. 2002. ISBN 9780849308611.