Advances in Heat Flux Measurements

Advances in Heat Transfer

Volumn 23, Issue C, 1993, Pages 279-368

  Diller, T E ^a  

^a VIRGINIA POLYTECHNIC INSTITUTE AND STATE UNIVERSITY   (United States)

Author keywords

[No Author keywords available]

Indexed keywords

EID: 0000679891     PISSN: 00652717     EISSN: None     Source Type: Book Series    
DOI: 10.1016/S0065-2717(08)70008-X     Document Type: Article

References (306)

1. Thompson, W.P., Heat transfer gages. Emrich, R.J., (eds.) Fluid Dynamics (Methods of Experimental Physics, 18B, 1981, Academic Press, New York, 663–685.
2. Clayton, W.A., Heat-flow transducers. McGuyer, E.C., (eds.) Handbook of Applied Thermal Design, 1989, McGraw-Hill, New York, 12/78–12/84.
3. Jones, T.V., Heat transfer, skin friction, total temperature, and concentration measurements. Richards, B.E., (eds.) Measurement of Unsteady Fluid Dynamic Phenomena, 1977, Hemisphere, Washington, DC, 63–102.
4. Hornbaker, D. R., and Rall, D. L. (1967). Heat flux measurements: a practical guide. 22nd Annual ISA Conference, Part II, Paper No. P11-1-PHYMMID-67.
5. Goldstein, R.J., Chiang, H.D., Measurement of temperature and heat transfer. Rohsenaw, W.M., et al. (eds.) Handbook of Heat Transfer Applications, 1985, McGraw-Hill, New York.
6. Englund, D. R., and Seasholtz, R. G. (1988). Recent advances in high temperature instrumentation for hot section applications. NASA TM-100282.
7. Bennethum, W. H., and Sherwood, L. T. (1988). Sensors for ceramic components in advanced propulsion systems: summary of literature survey and concept analysis. NASA CR-180900.
8. Alwang, W.G., Measurement of metal temperature heat flux and strain. Measurement Techniques in Turbomachines, 2, 1981, von Karman Institute Fluid Dynamics, Rhode St. Genese.
9. Paulon, J., Portat, M., Godetroy, J.C., Szechenyi, E., Ultrathin transducers applied to measurements in turbomachines. Measurement Techniques in Turbomachines, 2, 1981, von Karman Institute Fluid Dynamics, Rhode St. Genese.
10. Godefrey, J. C. (1981). Thin film transducers for temperature and heat flux measurements. La Recherche Aerospatiale 2, Mar.-Apr.) 73–83.
11. Neumann, D. (1989). Aerothermodynamic instrumentation. AGARD Report No. 761.
12. Neumann, R. D., Erbland, P. J., and Kretz, L. O. (1988). Instrumentation of hypersonic structures: a review of past applications and needs of the future. AIAA Paper No. 88–2612.
13. Kidd, C.T., Recent developments in high heat-flux measurement techniques at the AEDC. Proceedings of the 36th International Instrumentation Symposium, 1990, ISA, Research Triangle Park, NC, 477–492.
14. Trimmer, L. L., Matthews, R. K., and Buchanan, T. D. (1973). Measurement of aerodynamic heating rates at the von Karman facility. Int. Congr. Instr. Aerosp. Simul. Facil. Record, pp. 35–44.
15. Atkinson, W. H., Cyr, M. A., and Strange, R. R. (1988). Development of sensors for ceramic components in advanced propulsion systems (survey and evaluation of measurement techniques for temperature, strain, and heat flux for ceramic components in advanced propulsion systems). NASA-CR-182111.
16. Lockheed Aeronautical Systems Co. (1988). Instrumentation development for the National Aerospace Plane. Final Report No. NASP-445, Part III.
17. Van der Graaf, F., Heat flux sensors. Gopel, W., et al. (eds.) Sensors, 4, 1989, VCH, New York, 295–322.
18. Diller, T.E., Telionis, D.P., Time-resolved heat transfer and skin friction measurements in unsteady flow. Gad-el-Hak, M., (eds.) Advances in Fluid Mechanics Measurements, (Lecture Notes in Engineering, 1989, Springer-Verlag, Berlin, 232–355.
19. Saxena, S.C., Srivastava, K.K., Vadivel, R., Experimental techniques for the measurement of radiative and total heat transfer in gas fluidized beds: a review. Exp. Thermal Fluid Sci. 2 (1989), 350–364.
20. Moffat, R.J., Experimental methods in heat transfer. Shah, R.K., Ganic, E.N., Yang, K.T., (eds.) Experimental Heat Transfer, Fluid Mechanics and Thermodynamics 1988, 1988, Elsevier, New York, 13–31.
21. Moffat, R.J., Anderson, A.M., Experimental methods for air cooling of electronic components–1988. Hwang, G.J., (eds.) Transport Phenomena in Thermal Control, 1988, Hemisphere, Washington, DC, 419–445.
22. Moffat, R.J., Experimental heat transfer. Hestroni, G., (eds.) Heat Transfer 1990, 1, 1990, Hemisphere, Washington, DC, 187–205.
23. Hay, N., Heat transfer measurements in steady state facilities. Measurement Techniques in Turbomachines, 2, 1985, von Karman Institute Fluid Dynamics, Rhode St. Genese.
24. Schultz, D. L., and Jones, T. W. (1973). Heat transfer measurements in short duration hypersonic facilities. AGARDograph 165.
25. Scott, C.J., Transient experimental techniques for surface heat flux rates. Eckert, E.R.G., Goldstein, R.J., (eds.) Measurements in Heat Transfer, 2nd ed., 1976, McGraw-Hill, New York, 375–396.
26. Arts, T., Camci, C., Short duration heat transfer measurements. Measurement Techniques in Turbomachines, 2, 1985, von Karman Institute of Fluid Dynamics, Rhode St. Genese.
27. Oldfield, M.L.G., Experimental techniques in unsteady flows. Unsteady Aerodynamics, 1, 1988, von Karman Institute Fluid Dynamics, Rhode St. Genese.
28. Dunn, M.G., Experimental short-duration techniques. Convective Heat Transfer and Film Cooling in Turbomachinery, 1986, von Karman Institute for Fluid Dynamics, Rhode St. Genese.
29. Udell, K.S., Pisani, A.P., Howe, R.T., White, R.M., Muller, R.S., Microsensors for heat transfer and fluid flow measurements. Shah, R.K., Ganic, E.N., Yang, K.T., (eds.) Experimental Heat Transfer, Fluid Mechanics and Thermodynamics 1988, 1988, Elsevier, New York, 50–58.
30. Giedt, W.H., Investigation of variation of point unit heat-transfer coefficient around a cylinder normal to an air stream. ASME J. Heat Transfer 71 (1949), 375–381.
31. Andraka, C.E., Diller, T.E., Heat transfer distribution around a cylinder in pulsating crossflow. ASME J. Eng. Gas Turbines Power 107 (1985), 976–982.
32. Baughn, J.W., Saniei, N., The effect of the thermal boundary condition on heat transfer from a cylinder in cross flow. ASME J. Heat Transfer 113 (1991), 1020–1023.
33. Papell, S. S. (1981). Influence of thermal boundary conditions on heat transfer from a cylinder in crossflow. NASA TP 1894.
34. Chyu, M.-C., On the boundary condition and data reduction of heat transfer experiment. Int. Commun. Heat Transfer 14 (1987), 543–550.
35. Wesley, D.A., Thin disk on a convectively cooled plate–application to heat flux measurement errors. ASME J. Heat Transfer 101 (1979), 346–352.
36. Baba, T., Ono, A., Hattori, S., Analysis of the operational error of heat flux transducers placed on wall surfaces. Rev. Sci. Instrum. 56 (1985), 1399–1401.
37. Reynolds, W.C., Kays, W.M., Kline, S.J., A summary of experiments on turbulent heat transfer from a nonisothermal flat plate. ASME J. Heat Transfer 82 (1960), 341–348.
38. Taylor, R.P., Love, P.H., Coleman, H.W., Hosni, M.H., Heat transfer measurements in incompressible turbulent flat plate boundary layers with step wall temperature boundary conditions. ASME J. Heat Transfer 112 (1990), 245–247.
39. Holman, T.P., Heat Transfer., 6th ed., 1986, McGraw-Hill, New York.
40. Mills, A.F., Heat Transfer, 1992, Richard D. Irwin, Boston.
41. Eckert, E.R.G., Drake, R.M., Analysis of Heat and Mass Transfer, 1972, McGraw-Hill, New York.
42. Westkaemper, J.C., On the error in plug-type calorimeters caused by surface temperature mismatch. J. Aerosp. Sci. 28 (1961), 907–908.
43. Hornbaker, D. R., and Rall, D. L. (1964). Thermal perturbations caused by heat flux transducers and their effect on the accuracy of heating-rate measurements. ISA Trans. April), 123–130.
44. Bachmann, R.C., Chambers, J.T., Giedt, W.H., Investigation of surface heat-flux measurements with calorimeters. ISA Trans. 4 (1965), 143–151.
45. Eckert, E.R.G., Goldstein, R.J., (eds.) Measurements in Heat Transfer, 2nd ed., 1976, Hemisphere, Washington DC.
46. Schooley, J.F., Thermometry, 1986, CRC Press, Boca Raton, FL.
47. Pollock, D., Thermocouples: Theory and Properties, 1991, CRC Press, Boca Raton, FL.
48. McGee, T., Principles and Methods of Temperature Measurement, 1988, Wiley, New York.
49. Benedict, R.P., Fundamentals of Temperature, Pressure and Flow Measurements., 2nd ed., 1977, Wiley, New York.
50. Kinzie, P.A., Thermocouple Temperature Measurement, 1973, Wiley, New York.
51. Baker, H.D., Ryder, E.A., Temperature Measurement in Engineering, 1975, Omega Press, Stamford, CT.
52. Lion, K.S., Instrumentation in Scientific Research, 1959, McGraw-Hill, New York.
53. Hager, N.E. Jr., Thin foil heat meter. Rev. Sci. Instrum. 36 (1965), 1564–1570.
54. Andretta, A., Bartoli, B., Coluzzi, B., Cuomo, V., DeStefano, S., A simple heat flux meter. Rev. Sci. Instrum. 52 (1981), 233–234.
55. Klems, J.H., DiBartolomeo, D., Large-area high sensitivity heat-flow sensor. Rev. Sci. Instrum. 53 (1982), 1609–1612.
56. Jimenez, J., Rojas, E., Zamora, M., Design and construction of precision heat fluxmeters. J. Appl. Phys. 56 (1984), 3353–3356.
57. Moreno, J., Jiminez, J., Cordoba, A., Rojas, E., Zamora, M., New experimental apparatus for the study of the Benard-Rayleigh problem. Rev. Sci. Instrum. 51 (1980), 82–85.
58. Bales, E., Bomberg, M., Courville, G.E., (eds.) Building Applications of Heat Flux Transducers, 885, 1985, ASTM.
59. Haupin, W.E., Luffy, J.W., Construction and calibration of rugged heat flow meters. Light Metals 1 (1977), 125–131.
60. Malcorps, H., Method to increase the bandwidth of heat fluxmeters. Rev. Sci. Instrum. 54 (1983), 381–384.
61. Hager, N. E., Jr. (1967). Thin foil heat meter applications. 22nd Annual ISA Conference Proceedings, Part II, Paper No. P11-2-PHYMMID-67.
62. Ortolano, D.J., Hines, F.F., A simplified approach to heat flow measurement. Advances in Instrumentation 38, Part II, 1983, ISA, Research Triangle Park, 1449–1456.
63. Kumada, M., Kume, S., Mabuchi, I., Watanabe, Y., Hirata, M., Characteristics of dynamic behavior and local heat transfer around single row tubes immersed in floating particles. Exp. Thermal Fluid Sci. 3 (1990), 272–279.
64. Marner, W.J., MacDavid, K.S., Muzio, L.J., Development of a gas-side fouling measuring device. Shah, R.K., (eds.) Heat Transfer Equipment Fundamentals, Design, Applications and Operating Principles, 1989, ASME, New York, 305–314.
65. Shallcross, D.C., Wood, D.G., The accurate measurement of heat flux using a film heat flux sensor with application to axisymmetric bodies. Tien, C.L., et al. (eds.) Heat Transfer 1986, 2, 1986, Hemisphere, Washington, DC, 477–482.
66. Mori, Y., Koizumi, H., Nogo, Y., A study of the time and spatial micro-structure of heat transfer performance near the separation point upstream of a forward facing step. Heat Transfer–Jpn. Res. 18 (1989), 91–103.
67. Hollworth, B.R., Cole, G.H., Heat transfer to arrays of impinging jets in a crossflow. ASME J. Turbomachinery 109 (1987), 564–571.
68. Farouk, B., Kim, Y.G., Apelian, D., Pennucci, J., Heat flux measurements for metal castings on a spray cooled substrate. Shah, R.K., (eds.) Heat Transfer Measurements, Analysis and Flow Visualization, 1989, ASME, New York, 161–167.
69. Van Dorth, A.C., Thick film heat flux sensor. Sensors Actuators 4 (1983), 323–331.
70. Hayashi, M., Sakurai, A., Aso, S., A study of a multi-layered thin film heat transfer gauge and a new method of measuring heat transfer rate with it. Jpn. Soc. Aeronaut. Space Sci. Trans. 30 (1987), 91–101.
71. Hayashi, M., Sakurai, A., and Aso, S. (1986). Measurement of heat-transfer coefficients in shock wave turbulent boundary layer interaction regions with a multi-layered thin film heat transfer gauge. NASA-TM-77958.
72. Godefrey, J. C., Francois, D., Gageant, C, Miniere, F., and Portat, M. (1986). Thin film and high temperature thermal sensors deposited by RF cathode sputtering. ONERA TP No. 1986–28.
73. Godefroy, J. C., Gageaut, C., Francois, D., and Portat, M. (1987). Sputtered alumina layers and platinel thermocouples for high temperature surface thermometers, evaluation of their electrical and mechanical characteristics. ONERA TP 1987–30.
74. Godefroy, J.C., Clery, M., Gageaut, C., Francois, D., Servouze, Y., Thin film temperature heat fluxmeters. Thin Solid Films 193/194 (1990), 924–934.
75. Noel, B. W., Borella, H. M., Cates, M. R., Turley, W. D., MacArthur, C. D., and Cala, G. C. (1991). Optical heat flux gage. U. S. Patent No. 5, 044, 765.
76. Epstein, A.H., Guenette, G.R., Norton, R.J.G., Cao, Y., High-frequency response heat-flux gauge. Rev. Sci. Instrum. 57 (1986), 639–649.
77. Epstein, A. H., Guenette, G. R., and Yuzhang, C. (1985). High frequency response heat flux gauge for metal blading. AGARD CP 390.
78. Hager, J.M., Onishi, S., Langley, L.W., Diller, T.E., Heat flux microsensors. Shah, R.K., (eds.) Heat Transfer Measurements, Analysis and Flow Visualization, 1989, ASME, New York, 1–8.
79. Hager, J.M., Simmons, S., Smith, D., Onishi, S., Langley, L.W., Diller, T.E., Experimental performance of a heat flux microsensor. ASME J. Eng. Gas Turbines Power 113 (1991), 246–250.
80. Hager, J.M., Terrell, J.P., Langley, L.W., Onishi, S., Diller, T.E., Measurements with the heat flux microsensor. Proceedings of the 37th International Instrumentation Symposium, 1991, ISA, Research Triangle Park, NC, 551–561.
81. Terrell, J. P., Hager, J. M., Onishi, S., and Diller, T. E. (1992). Heat flux microsensor measurements and calibrations. NASA CP3161, pp. 69–80.
82. Hager, J. M., Terell, J. P., and Sivertson, E. P. (1992). Tests of heat flux microsensors. Vatell Report No. V9201-T.
83. Liebert, C.H., Holanda, R., Hippensteele, S.A., Andracchio, C.A., High-temperature thermocouple and heat flux gauge using a unique thin film-hardware hot junction. J. Eng. Gas Turbines Power 107 (1985), 938–944.
84. Atkinson, W. H., and Strange, R. R. (1982). Development of advanced high-temperature heat flux sensors. NASA CR-165618.
85. Atkinson, W.H., Strange, R.R., Hobart, H., Advanced high temperature heat flux sensors. Adv. Instrum. 38 (1983), 1457–1479.
86. Atkinson, W. H., Cyr, M. A., and Strange, R. R. (1984). Turbine blade and vane heat flux sensor development, Phase I. NASA CR-168297.
87. Atkinson, W. H., Cyr, M. A., and Strange, R. R. (1985). Turbine blade and vane heat flux sensor development, Phase II-Final Report. NASA CR-174995.
88. Atkinson, W. H., and Strange, R. R. (1988). Rotational testing of heat flux sensors in turbine blades. AIAA Paper No. 88–3148.
89. Hannemann, R.J., Mikic, B.B., An experimental investigation into the effect of surface thermal conductivity on the rate of heat transfer in dropwise condensation. Int. J. Heat Mass Transfer 19 (1976), 1309–1317.
90. Gador, A. Y., Martinez-Sanchez, M., and Louis, J. F. (1986). High temperature heat transfer and skin friction in turbulent flows along highly cooled walls. AIAA Paper 86–1235.
91. Lopata, S., Determination du flux de chaleur instantionnaire sur les surfaces cylindriques. Int. J. Heat Mass Transfer 33 (1990), 349–357.
92. Wittig, S., Schulz, A., Bauer, H. J., and Sill, K. H. (1985). Effects of wakes on the heat transfer in gas turbine cascades. AGARD CP 390.
93. Dullenkopf, K., Schulz, A., Wittig, S., The effect of the mean heat transfer of an airfoil. ASME J. Turbomachinery 113 (1991), 412–418.
94. George, A.H., Smalley, J.L., An instrumented cylinder for the measurement of instantaneous local heat flux in high temperature fluidized beds. Int. J. Heat Mass Transfer 34 (1991), 3025–3036.
95. Eppich, H. M., and Kreatsoulas, J. S. (1989). A novel infrared thermography heat transfer measurement technique. AIAA Paper No. 89–0601.
96. Hayes, J., and Rougeux, A. (1991). The application of numerical techniques to model the response and integration of thermal sensors in wind tunnel models. AIAA Paper No. 91–0063.
97. Kidd, C. T. (1981). A durable intermediate temperature, direct reading heat flux transducer for measurements in continuous wind tunnels. AEDC-TR-81-19.
98. Gardon, R., An instrument for the direct measurement of intense thermal radiation. Rev. Sci. Instrum. 24 (1953), 366–370.
99. Gardon, R., A segmented mirror solar furnace for high-intensity thermal radiation. Rev. Sci. Instrum. 25 (1954), 459–463.
100. Gardon, R., A transducer for the measurement of heat flow rate. ASME J. Heat Transfer 82 (1960), 396–398.
101. Ash, R.L., Response characteristics of thin foil heat flux sensors. AIAA J. 7 (1969), 2332–2335.
102. Malone, E.W., Design and calibration of thin-foil heat flux sensors. ISA Trans. 7 (1968), 175–179.
103. Keltner, N.R., Wildin, M.W., Transient response of circular foil heat flux gages to radiative fluxes. Rev. Sci. Instrum. 46 (1975), 1161–1166.
104. Kirchoff, R.H., Response of finite-thickness Gardon heat flux sensors. ASME J. Heat Transfer 94 (1972), 244–245.
105. Sobolik, K.B., Keltner, N.R., Beck, J.V., Measurements errors for thermocouples attached to thin plates: application to heat flux measurement devices. Shah, R.K., (eds.) Heat Transfer Measurements, Analysis and Flow Visualization, 1989, ASME, New York, 15–21.
106. Ash, R. L., and Wright, R. E. (1971). Design considerations for Gardon heat flux sensors. 6th AIAA Thermophysics Conference, Paper 71–470.
107. ASTM Standard E511-73. Measurement of heat flux using a copper-constantan circular foil heat-flux gage. Annu. Book ASTM Standards 15.03 (1988), 355–360.
108. Borell, G.J., Diller, T.E., A convection calibration method for local heat flux gages. ASME J. Heat Transfer 109 (1987), 83–89.
109. Kuo, C.H., Kulkarni, A.K., Analysis of heat flux measurement by circular foil gages in a mixed convection/radiation environment. ASME J. Heat Transfer 113 (1991), 1037–1040.
110. Woodruff, L.W., Hearne, L.F., Keliher, T.J., Interpretation of asymptotic calorimeter measurements. AIAA J. 5 (1967), 795–797.
111. Clayton, W. A. (1980). High temperature circular foil heat flux gage. Hy-Cal Engineering Pub. TR-417, May.
112. Mikk, I.R., Klevtsov, I.A., A modified Gardon heat flux probe for separate measurement of the components of radiative plus-convective flux. Heat Transfer–Sov. Res. 17:6 (1982), 29–32.
113. Young, M.F., LaRue, J.C., Koency, J.E., Effect of free-stream velocity vector on the output of a circular disk heat gage. ASME J. Heat Transfer 106 (1984), 229–233.
114. Krane, M., and Dybbs, A. (1987). Numerical study of the effects of boundary conditions on the measurement and calibration of Gardon type heat flux sensors. Structural Integrity and Durability of Reusable Space Propulsion Systems NASA N87-22775), pp. 51–57.
115. Shepherd, J.E., Stagnation point heat transfer from jet plumes. Law, C.W., et al. (eds.) Heat Transfer in Fire and Combustion Systems, 1985, ASME, New York, 173–180.
116. Thibault, J., Hoffman, T.W., A heat flux meter to determine the local heat flux density during a quenching experiment. Int. J. Heat Mass Transfer 22 (1979), 177–184.
117. Yeh, F. C., and Gladden, H. J. (1989). Experience with advanced instrumentation in a hot section cascade. NASA TM-102294.
118. Englund, D. R. (1987). Research sensors. In Aeropropulsion 87 Session 4: Instrumentation and Controls Research). NASA Lewis Research Center, Cleveland.
119. Kiss, L.I., Charette, A., Bui, R.T., The determination of thermal boundary and coupling conditions on furnace walls. Sousa, A., et al. (eds.) Computational Methods and Experimental Measurements, 1992, Elsevier, New York, 323–334.
120. Atkinson, W. H., Strange, R. R., and Moffat, R. J. (1988). Development of porous plug radiometers for use in advanced gas turbine engine programs. AIAA Paper No. 88–3040.
121. Matthews, L., Longenbaugh, R., and Mata, R. (1986). Transpiration radiometer in fire characterization. In Tech, pp. 55–60.
122. Matthews, L., Longenbaugh, R., Radiative flux measurements in a sooty pool fire. Exp. Heat Transfer 2 (1989), 189–199.
123. Longenbaugh, R. S., and Matthews, L. K. (1988). Experimental and theoretical analysis of the radiative transfer within a sooty pool fire. Sandia Report SAND 86–0083, TTC-0642, UC-71.
124. Brajuskovic, B., Matovic, M., Afgan, N., A heat flux meter for ash deposit monitoring systems–I. Ash deposit preventation. Int. J. Heat Mass Transfer 34 (1991), 2291–2301.
125. Brajuskovic, B., Afgan, N., A heat flux meter for ash deposit monitoring systems–II. Clean heat flux-meter characteristics. Int. J. Heat Mass Transfer 34 (1991), 2303–2315.
126. Brajuskovic, B., Afgan, N., ‘Clean’ type heat flux meter. Hetsroni, G., (eds.) Heat Transfer 1990, 3, 1990, Hemisphere, Washington, DC, 253–258.
127. Sun, Y. Z., Kale, S. R., Bajura, R. A., and Keech, T. W., Jr. (1987). Development of a thermopile deposition sensor. Dev. Exp. Tech. in Heat Transfer and Combustion R. O. Warrington et al.), pp. 23–27.
128. ASTM Standard E457-72 (1988). Standard method for measuring heat-transfer rate using a thermal capacitance (slug) calorimeter. Annual Book of ASTM Standards, Vol. 15.03, pp. 299–303.
129. Liebert, C. H. (1988). Measurement of local high-level, transient surface heat flux. NASA TP-2840.
130. Liebert, C. H. (1990). Heat flux measurement in SSME turbine blade tester. NASA TM-103274.
131. Liebert, C. H. (1992). Miniature high temperature plug-type heat flux gauges. NASA TM 105403.
132. Hodge, J.K., Chen, A.J., Hayes, J.R., Unsteady heat transfer coefficient estimation for long duration. AIAA J. Thermophys. 2 (1988), 218–226.
133. ASTM Standard E598-77. (1988). Standard method for measuring extreme heat-transfer rates from high-energy environments using a transient null-point calorimeter. Annual Book of ASTM Standards, Vol. 15.03, pp. 381–387.
134. Kidd, C. T. (1992). High heat flux measurements and experimental calibrations/characterizations. NASA CP3161, pp. 31–50.
135. Carver, D.B., Kidd, C.T., Heat-transfer measurement uncertainty in arc-heated flows. Proceedings of the 37th International Instrumentation Symposium, 1991, ISA, Research Triangle Park, NC, 951–967.
136. Kidd, C.T., Coaxial surface thermocouples: analytical and experimental considerations for aerothermal heat-flux measurement applications. Proceedings of the 36th International Instrumentation Symposium, 1990, ISA, Research Triangle Park, NC, 203–211.
137. Bendersky, D., A special thermocouple for measuring transient temperatures. Mech. Eng. 75:2 (1953), 117–121.
138. Garcia, J., de Schor, B.B., A fast gauge for energy flux density measurement. Rev. Sci. Instrum., 61, 1990, 165.
139. Taylor, R.P., Love, P.H., Coleman, H.W., Hosni, M.H., Step heat flux effects on turbulent boundary-layer heat transfer. J. Thermophys. Heat Transfer 4 (1990), 121–123.
140. Enomoto, Y., Furuhama, S., Study on thin-film thermocouple measuring instantaneous temperature on surface of combustion chamber wall in internal combustion engine. Bull. JSME 29 (1986), 3434–3441.
141. ASTM Standard E459-72. (1988). Design and use of a thin-skin calorimeter for measuring heat transfer rate. Annual Book of ASTM Standards, Vol. 15.03, pp. 309–313.
142. Gordon, S.A., On the limits on wall-thickness in the thin-wall calorimeter heat flux gauge. ASME J. Heat Transfer 86 (1964), 291–293.
143. Kidd, C.T., Thin-skin technique heat-transfer measurement errors due to heat conduction into thermocouple wires. ISA Trans. 24:2 (1985), 1–9.
144. Landrum, C.S., Transient flow heat transfer measurements using the thin-skin method. ASME J. Heat Transfer 96 (1974), 425–426.
145. Starner, K. E. (1967). Use of thin-skinned calorimeters for high heat flux arc jet measurements 22nd Annual ISA Conference Proceedings, Part II, Paper No. P11-5-PHYMMID-67.
146. Beck, J.V., Keltner, N.R., Green's function partitioning procedure applied to foil heat flux gages. ASME J. Heat Transfer 109 (1987), 274–279.
147. Miller, C. G. (1981). Comparison of thin-film resistance heat-transfer gages with thin-skin transient calorimeter gages in conventional hypersonic wind tunnels. NASA TM 83197.
148. Barry, B., Forest, A. E., and White, A. J. (1982). Measurements of heat transfer coefficients on gas turbine components, part 1: Description, analysis and experimental verification of a technique for use in hostile environments. ASME Paper 81-GT-174.
149. Beacock, R. J., Horton, F. G., Kirker, T. J., and White, A. J. (1982). Measurements of heat transfer components, part II: Applications of the technique described in Part I and comparisons with results from a conventional measuring technique and predictions. ASME Paper No. 82-GT-175.
150. Carslaw, H.S., Jaeger, J.C., Conduction of Heat in Solids., 2nd ed., 1959, Clarendon Press, Oxford.
151. Cook, W.J., Feldman, E.M., Reduction of data from thin film heat-transfer gages: a concise numerical technique. AIAA J. 4 (1966), 561–562.
152. George, W.K., Rae, W.J., Seymour, P.J., Sonnenmeier, J.R., An evaluation of analog and numerical techniques for unsteady heat transfer measurement with thin film gauges in transient facilities. Exp. Thermal Fluid Sci. 4 (1991), 333–342.
153. Cook, W.J., Determination of heat-transfer surface temperature measurements. AIAA J. 8 (1970), 1366–1368.
154. Elrod, J. C., Gochernaur, J. E., Hitchcock, J. E., and Rivir, R. B. (1985). Investigation of transient technique for turbine vane heat transfer using a shock tube. ASME Paper 85-IGT-17.
155. Gladden, H. J., and Proctor, M. P. (1985). Transient technique for measuring heat transfer coefficients on stator airfoils in a jet engine environment. AIAA Paper No. 85–1471.
156. Keltner, N.R., Bainbridge, B.L., Beck, J.V., Rectangular heat source on a semi-infinite solid–an analysis for a thin film heat flux gage calibration. ASME J. Heat Transfer 110 (1988), 42–48.
157. Jessen, C., Groenig, H., A new method for manufacture of thin film heat flux gauges. Shock Waves 1 (1991), 161–164.
158. Miller, C. G. (1984). Experimental and predicted heating distributions for biconics at incidence in air at Mach 10. NASA TP-2334.
159. Miller, C. G., Micol, J. R., and Gnoffo, P. A. (1985). Laminar heat-transfer distributions on biconics at incidence in hypersonic-hypervelocity flows. NASA TP-2213.
160. Miller, C.G., Refinement of an ‘alternate’ method for measuring heating rates in hypersonic wind tunnels. AIAA J. 23 (1985), 810–812.
161. Micol, J.R., Experimental and predicted pressure and heating distributions for aeroassist flight experiment vehicle. J. Thermophys. Heat Transfer 5 (1991), 301–307.
162. Tsou, F. T., Chen, S. J., and Ko, S. Y. (1983). Measurement of heat transfer rates using a transient technique. ASME Paper No. 83-HT-87.
163. Consigny, H., Richards, B.E., Short duration measurements of heat-transfer rate to a gas turbine rotor blade. ASME J. Eng. Power 104 (1982), 542–551.
164. Nagamatsu, H. T., and Choi, K. Y. (1987). Endwall heat transfer in the junction region of a circular cylinder normal to a flat plate at 30 and 60 degrees from stagnation point of the cylinder. AIAA Paper No. 87–0077.
165. Geller, A.S., Heat flux from a fuel-air detonation to a structure. Shah, R.K., (eds.) Heat Transfer Measurements, Analysis and Flow Visualization, 1989, ASME, New York, 9–14.
166. Ratzel, A.C., Shepherd, J.E., Heat transfer resulting from premixed combustion. Law, C.K., et al. (eds.) Heat Transfer in Fire and Combustion Systems, 1985, ASME, New York, 191–201.
167. Camci, C., Arts, T., Short-duration measurements and numerical simulation of heat transfer along the suction side of a film-cooled gas turbine blade. ASME J. Eng. Gas Turbine Power 107 (1985), 991–997.
168. Camci, C., Arts, T., Effect of incidence on wall heating rates and aerodynamics on a film-cooled transonic turbine blade. ASME J. Turbomachinery 113 (1991), 493–501.
169. Kercher, D.M., Sheer, R.E., So, R.M.E., Short duration heat transfer studies at high free-stream temperatures. ASME J. Eng. Power 105 (1983), 156–166.
170. Van Heiningen, A.R.P., Douglas, W.J.M., Mujumdar, A.S., A high sensitivity fast response heat flux sensor. Int. J. Heat Mass Transfer 28 (1985), 1657–1667.
171. Harasgama, S.P., Wedlake, E.T., Heat transfer and aerodynamics of a high rim speed turbine nozzle guide vane tested in the RAE isentropic light piston cascade (ILPC. ASME J. Turbomachinery 113 (1991), 384–391.
172. Polat, S., Van Heiningen, A.R.P., Douglas, W.J.M., Sensor for transient heat flux at a surface with throughflow. Int. J. Heat Mass Transfer 34 (1991), 1515–1523.
173. O'Brien, J.E., A technique for measurement of instantaneous heat transfer in steady-flow ambient-temperature facilities. Exp. Thermal Fluid Sci. 3 (1990), 416–430.
174. O'Brien, J.E., Simoneau, R.J., La Graff, J.E., Morehouse, K.A., Unsteady heat transfer and direct comparison to steady-state measurements in a rotor-wake experiment. Tien, C.L., et al. (eds.) Heat Transfer 1986, 3, 1986, Hemisphere, Washington, DC, 1243–1248.
175. O'Brien, J.E., Effects of wake passing on stagnation region heat transfer. ASME J. Turbomachinery 112 (1990), 522–530.
176. Ching, C.Y., O'Brien, J.E., Unsteady heat flux in a cylinder stagnation region with high freestream turbulence. Beasley, D.E., Chen, J.L.S., (eds.) Fundamental Experimental Measurements in Heat Transfer, 1991, ASME, New York, 57–66.
177. Dunn, M.G., Time-resolved heat-flux measurements for the rotor blade of a TFE-731-2 HP turbine. Convective Heat Transfer and Film Cooling in Turbomachinery, 1986, von Karman Institute for Fluid Dynamics, Rhode St. Genese.
178. Dunn, M.G., Stoddard, F.J., Measurement of heat transfer rate to a gas turbine stator. ASME J. Eng. Power 101 (1979), 275–280.
179. Dunn, M.G., Rae, W.J., Holt, J.L., Measurement and analyses of heat flux data in a turbine stage: Part II–Discussion of results and comparison with predictions. ASME J. Eng. Gas Turbines Power 106 (1984), 234–240.
180. Dunn, M.G., Hause, A., Measurement of heat flux and pressure in a turbine stage. ASME J. Eng. Power 104 (1982), 215–223.
181. Dunn, M. G. (1985). Heat flux measurements and analysis for a rotating turbine stage. AGARD CP-390.
182. Dunn, M.G., Measurement for the rotor of a full-stage turbine: part 1–time-averaged results. ASME J. Turbomachinery 108 (1986), 90–97.
183. Dunn, M.G., Martin, H.L., Stanek, M.J., Heat-flux measurements and comparison with prediction for a low aspect ratio turbine stage. ASME J. Turbomachinery 108 (1986), 108–115.
184. Dunn, M. G., Rae, W. J., and Rigby, D. L. (1987). Experimental and theoretical studies of time-averaged and time-resolved rotor heat transfer. In Structural Integrity and Durability of Reusable Space Propulsion Systems NASA N87-22770). pp. 29–32.
185. Dunn, M.G., George, W.K., Rae, W.J., Woodward, S.H., Moller, J.C., Seymour, P.J., Heat-flux measurements for a full-stage turbine: part II–Description of analysis technique and typical time-resolved measurements. ASME J. Turbomachinery 108 (1986), 98–107.
186. Dunn, M.G., Phase and time-resolved measurements of unsteady heat transfer and pressure in a full-stage rotating turbine. ASME J. Turbomachinery 112 (1990), 531–538.
187. Jones, T.V., Schultz, D.L., Oldfield, M.L.G., Daniels, L.C., Measurement of heat transfer rate to turbine blades and nozzle guide vanes in a transient cascade. Sixth International Heat Transfer Conference, 2, 1978, Hemisphere, New York, 73–78.
188. Nicholson, J.H., Forest, A.E., Oldfield, M.L.G., Schultz, D.L., Heat transfer optimized turbine rotor blades–an experimental study using transient techniques. ASME J. Eng. Gas Turbines Power 106 (1987), 173–182.
189. Horton, F. G., Schultz, D. L., and Forest, A. (1985). Heat transfer measurements with film cooling on a turbine blade profile in cascade. ASME Paper No. 85-GT-117.
190. Doorly, D.J., Oldfield, M.L.G., Simulation of the effects of shock wave passing on a turbine rotor blade. ASME J. Eng. Gas Turbine Power 107 (1985), 998–1006.
191. Ashworth, D.A., LaGraff, J.E., Schultz, D.L., Grindrod, K.J., Unsteady acrodynamic and heat transfer processes in a transonic turbine stage. ASME J. Eng. Gas Turbines Power 107 (1985), 1022–1030.
192. Doorly, D. J., Oldfield, M. L. G., and Scrivener, C. T. J. (1985). Wake-passing in a turbine rotor cascade. AGARD CP-390.
193. Doorly, D.J., Modeling the unsteady flow in turbine rotor passage. ASME J. Turbomachinery 110 (1988), 27–37.
194. Johnson, A.B., Rigby, M.J., Oldfield, M.L.G., Ainsworth, R.W., Oliver, M.J., Surface heat transfer fluctuations on a turbine rotor blade due to upstream shock wave passing. ASME J. Turbomachinery 111 (1989), 105–115.
195. Ashworth, D.A., LaGraff, J.E., Schultz, D.L., Unsteady interaction effects on a transitional turbine blade boundary layer. ASME J. Turbomachinery 111 (1989), 162–168.
196. LaGraff, J.E., Ashworth, D.A., Schultz, D.L., Measurement and modeling of the gas turbine blade transition processes disturbed by wakes. ASME J. Turbomachinery 111 (1989), 315–322.
197. Doorly, J.E., Oldfield, M.L.G., New heat transfer gages for use on multilayered substrates. ASME J. Turbomachinery 108 (1986), 153–160.
198. Doorly, J.E., Oldfield, M.L.G., The theory of advanced multilayer thin film heat transfer gauges. Int. J. Heat Mass Transfer 30 (1987), 1159–1168.
199. Doorly, J.E., Procedures for determining surface heat flux using thin film gages on a coated metal model in a transient test facility. ASME J. Turbomachinery 110 (1988), 242–250.
200. Ainsworth, R.W., Allen, J.L., Davies, M.R.D., Doorly, J.E., Forth, C.J.P., Hilditch, M.A., Oldfield, M.L.G., Sheard, A.G., Developments in instrumentation and processing for transient heat transfer measurement in a full-stage model turbine. ASME J. Turbomachinery 111 (1989), 20–27.
201. Hilditch, M. A., and Ainsworth, R. W. (1990). Unsteady heat transfer measurements on a rotating gas turbine blade. ASME Paper No. 90-GT-175.
202. Metzger, D.E., Larson, D.E., Use of melting point surface coatings for local convection heat transfer measurements in rectangular channel flows with 90 degree turns. ASME J. Heat Transfer 108 (1986), 48–54.
203. Horvath, T. J. (1990). Aerothermodynamic measurement on a proposed assured crew return vehicle (ACRV) lifting body configuration at Mach 6 and 10 in air. AIAA Paper No. 90–1744.
204. Ireland, P.T., Jones, T.V., The response time of a surface thermometer employing encapsulated thermochromic liquid crystals. J. Phys. E. Sci. Instrum. 20 (1987), 1195–1199.
205. Ireland, P.T., Jones, T.V., Detailed measurements of heat transfer on and around a pedestal in fully developed passage flow. Tien, C.L., et al. (eds.) Heat Transfer 1986, 3, 1986, Hemisphere, Washington, DC, 975–980.
206. Ireland, P. T., and Jones, T. V. (1985). The measurement of local heat transfer coefficients in blade cooling geometries. AGARD CP-390.
207. Jones, T.V., Hippensteele, S.A., High-resolution heat-transfer coefficient maps applicable to compound-curve surfaces using liquid crystals in a transient wind tunnel. Warrington, R.O., et al. (eds.) Dev. in Exp. Tech. in Heat Transfer and Combustion, 1987, ASME, New York, 1–9.
208. Baughn, J.W., Ireland, P.T., Jones, T.V., Saniei, N., A comparison of the transient and heated-coating methods for the measurement of local heat transfer coefficients. ASME J. Heat Transfer 111 (1989), 877–881.
209. Metzger, D.E., Bunker, R.S., Bosch, G., Transient liquid crystal measurement of local heat transfer on a rotating disk with jet impingement. ASME J. Turbomachinery 113 (1991), 52–59.
210. Wang, Z., Ireland, P. T., and Jones, T. V. (1990). A technique for measuring convective heat transfer at rough surfaces. ASME Paper No. 90-GT-300.
211. Buck, G. M. (1991). Surface temperature/heat transfer measurement using a quantitative phosphor thermography system. AIAA Paper No. 91–0064.
212. Simeonides, G., Wendt, J. F., Van Lierde, P., Vander Stichele, S., and Capriotti, D. (1989). Infrared thermography in blowdown and intermittent hypersonic facilities. AIAA Paper No. 89–0042.
213. Fort, C., Kageyama, T., Saulnier, J.B., Identification of heat flux in the wall of a combustion chamber by solving an inverse conduction problem. Hetsroni, G., (eds.) Heat Transfer 1990, 5, 1990, Hemisphere, Washington, DC, 473–478.
214. Porro, A. R., Keith, T. G., Jr., and Hingst, W. R. (1991). A laser-induced heat flux technique for convective heat transfer measurements in high speed flows. ICASE 91 Record, IEEE, pp. 146–155.
215. Crowther, D.J., Padet, J., Measurement of the local convection coefficient by pulsed photothermal radiometry. Int. J. Heat Mass Transfer 34 (1991), 3075–3081.
216. Wang, T., Simon, T.W., Development of a special-purpose test surface guided by uncertainty analysis. J. Thermophysics Heat Transfer 3 (1989), 19–26.
217. Baughn, J.W., Takahashi, R.K., Hoffman, M.A., McKillop, A.A., Local heat transfer measurements using an electrically heated thin gold-coated plastic sheet. ASME J. Heat Transfer 107 (1985), 953–959.
218. Baughn, J.W., Hoffman, M.A., Takahashi, R.K., Lee, D., Heat transfer downstream of an abrupt expansion in the transition Reynolds number regime. ASME J. Heat Transfer 109 (1987), 37–42.
219. Baughn, J.W., Dingus, C.A., Hoffman, M.A., Launder, B.E., Turbulent heat transport in a circular duct with a narrow strip heat flux boundary condition. ASME J. Heat Transfer 111 (1989), 864–869.
220. Dielsi, G.J., Mayle, R.E., A composite constant heat flux test surface. Metzger, D., Afgan, N.H., (eds.) Heat and Mass Transfer in Rotating Machinery, 1984, Hemisphere, Washington, DC, 259–268.
221. Ligrani, P.M., Subramanian, C.S., Craig, D.W., Kaisawan, P., Effects of vortices with different circulations on heat transfer and injectant downstream of a single film-cooling hole in a turbulent boundary layer. ASME J. Turbomachinery 113 (1991), 433–441.
222. Oker, E., and Merte, H. Jr. (1978). A study of transient effects leading up to inception of nucleate boiling. Sixth Int. Heat Trans. Conf., Part 1, pp. 139–144.
223. Samant, K.R., Simon, T.W., Stuart, R.V., Using thin-film technology to fabricate a small-patch boiling heat transfer test section. Jones, O.C., Farukhi, N.M., (eds.) New Experimental Techniques in Heat Transfer, 1984, ASME, New York, 33–38.
224. Carlomango, G.M., DeLuca, L., Heat transfer measurements by means of infrared thermography. Veret, C., (eds.) Flow Visualization IV, 1987, Hemisphere, Washington, DC, 611–616.
225. Hollingsworth, D.K., Boehman, A.L., Smith, E.G., Moffat, R.J., Measurement of temperature and heat transfer coefficient distribution in a complex flow using liquid crystal thermography and true-color image processing. Marner, W.J., et al. (eds.) Collected Papers in Heat Transfer., 1989, ASME, New York, 35–42.
226. Hollingsworth, D.K., Watwe, A.A., Thermal images of the transition from natural convection to nucleate boiling. AIChE Symposium Series 88:288 (1992), 10–17.
227. Watwe, A.A., Hollingsworth, D.K., Thermal images of the transition from bubble-forced convection to nucleate boiling. AIChE Symposium Series 88:288 (1992), 1–9.
228. Kenning, D.B.R., Wall temperature patterns in nucleate boiling. Int. J. Heat Mass Transfer 35 (1992), 73–86.
229. Hoogendoorn, C.J., The effect of turbulence on heat transfer at a stagnation point. Int. J. Heat Mass Transfer 20 (1977), 1333–1338.
230. den Ouden, C., Hoogendoorn, C.J., Local convective heat transfer coefficients for jets impinging on a plate; experiments using a liquid-crystal technique. Proc. 5th Int. Heat Transfer Conf. V (1974), 293–297.
231. Goldstein, R.J., Timmers, J.F., Visualization of heat transfer from arrays of impinging jets. Int. J. Heat Mass Transfer 25 (1982), 1857–1868.
232. Cooper, T.E., Field, R.J., Meyer, J.F., Liquid crystal thermography and its application to the study of convective heat transfer. ASME J. Heat Transfer 97 (1975), 442–450.
233. Kang, Y., Nishino, J., Suzuki, K., Sato, T., Application of flow and surface temperature visualization techniques to a study of heat transfer in recirculating flow regions. Merzkvich, W., (eds.) Flow Visualization II, 1982, Hemisphere, New York, 71–81.
234. Simonich, J.C., Moffat, R.J., Liquid crystal visualization of surface heat transfer on a concavely curved turbulent boundary layer. ASME J. Eng. Gas Turbines Power 106 (1984), 619–627.
235. Taslim, M.E., Bond, L.A., Kercher, D.M., An experimental investigation of heat transfer in an orthogonally rotating channel roughened with 45 degree criss-cross ribs on two oppsosite walls. ASME J. Turbomachinery 113 (1991), 346–353.
236. Baughn, J.S., Hechanova, A.E., Yan, X., An experimental study of entrainment effects on the heat transfer from a flat surface to a heated circular impinging jet. ASME J. Heat Transfer 113 (1991), 1023–1025.
237. Baughn, J.W., Shimizu, S., Heat transfer measurements from a surface with uniform heat flux and an impinging jet. ASME J. Heat Transfer 111 (1989), 1096–1098.
238. Baughn, J.W., Hoffman, M.A., Makel, D.B., Improvements in a new technique for measuring and mapping heat transfer coefficients. Rev. Sci. Instrum. 57 (1986), 650–654.
239. Kalinin, E.K., Drietser, G.A., Unsteady convective heat transfer and hydrodynamics in channels. Adv. Heat Transfer 6 (1970), 367–502.
240. Hippensteele, S.A., Russel, L.M., Stepka, F.S., Evlauation of a method for heat transfer measurements and thermal visualization using a composite of a heater element and liquid crystals. ASME J. Heat Transfer 105 (1983), 184–189.
241. Hippensteele, S.A., Russell, L.M., Torres, F.J., Local heat transfer measurements on a large, scale-model turbine blade airfoil using a composite of a heater element and liquid crystals. ASME J. Eng. Gas Turbines Power 107 (1985), 953–960.
242. Hippensteele, S. A., Russel, L. M., and Torres, F. J. (1987). Use of a liquid-crystal, heater-element composite for quantitative, high-resolution heat transfer coefficients on a turbine airfoil, including turbulence and surface roughness effects. NASA TM-87355.
243. Hippensteele, S. A., and Russell, L. M. (1988). High-resolution liquid-crystal heat-transfer measurements on the end wall of a turbine passage with variations in Reynolds number. NASA TM 100827.
244. Shewen, E.C., Hollands, K.G.T., Raithby, G.D., The measurement of surface heat flux using the Peltier effect. ASME J. Heat Transfer 111 (1989), 798–803.
245. Watts, J., and Williams, F. (1984). A technique for the measurement of local heat transfer coefficients using copper foil. First UK National Conference on Heat Transfer, Institution of Chemical Engineers (Symposium Series), Vol. 86, pp. 919–932.
246. McCormick, D.C., Test, F.L., Lessman, R.C., The effect of heat transfer from a rectangular prism. ASME J. Heat Transfer 106 (1984), 268–275.
247. Florschuetz, L.W., Berry, R.A., Metzger, D.E., Periodic streamwise variations of heat transfer coefficients for inline and staggered arrays of circular jets with crossflow of spent air. ASME J. Heat Transfer 102 (1980), 132–137.
248. Florscheutz, L.W., Su, C.C., Effects of crossflow temperature on heat transfer within an array of impinging jets. ASME J. Heat Transfer 109 (1987), 74–82.
249. Vanden Berghe, T.M., Diller, T.E., Heat transfer in a perpendicular arrangement of cylinders in steady and pulsating crossflow. Tien, C.L., et al. (eds.) Heat transfer 1986, 3, 1986, Hemisphere, Washington, DC, 1029–1034.
250. Moffat, R.J., Kays, W.M., A review of turbulent-boundary-layer heat transfer research at Stanford 1948–1983. Adv. Heat Transfer 16 (1984), 241–365.
251. VandenBerghe, T., Diller, T.E., Analysis and Design of experimental systems for heat transfer measurement from constant temperature surfaces. Exp. Thermal Fluid Sci. 2 (1989), 236–246.
252. Achenbach, E., Total and local heat transfer from a smooth circular cylinder in cross-flow at high Reynolds number. Int. J. Heat Mass Transfer 18 (1975), 1387–1396.
253. Groehn, H.G., Integral and local heat transfer of a Yawed Single Circular Cylinder up to Supercritical Reynolds Numbers. Tien, C.L., et al. (eds.) Heat Transfer 1986, 3, 1986, Hemisphere, Washington, DC, 1013–1018.
254. Kraabel, J.S., Baughn, J.W., McKillop, A.A., An instrument for the measurement of heat flux from a surface with uniform temperature. ASME J. Heat Transfer 102 (1980), 576–578.
255. Kraabel, J.S., McKillop, A.A., Baughn, J.W., Heat transfer to air from a yawed cylinder. Int. J. Heat Mass Transfer 25 (1982), 409–418.
256. Baughn, J. W., Hoffman, M. A., and Lee, D. (1986). Heat transfer measurements downstream of an abrupt expansion in a circular duct with a constant wall temperature. ASME Paper No. 86-WA/HT-100.
257. Baughn, J.W., Hoffman, M.A., Launder, B.E., Lee, D., Yap, C., Heat transfer, temperature, and velocity measurements downstream of an abrupt expansion in a circular tube at a uniform wall temperature. ASME J. Heat Transfer 111 (1989), 870–876.
258. Baughn, J.W., Hoffman, M.A., Lee, D., An instrument for the measurement of the heat flux distribution along a contour of a surface at uniform temperatures. Warrington, R.O., et al. (eds.) Dev. Exp. Tech. in Heat Transfer and Combustion, 1987, ASME, New York, 11–17.
259. Bellhouse, B.J., Schultz, D.L., Determination of mean and dynamic skin friction, separation and transition in low-speed flow with a thin-film heated element. J. Fluid Mech. 24 (1966), 379–400.
260. Winter, K.G., An outline of the techniques available for the measurement of skin friction. Prog. Aerosp. Sci. 18 (1977), 1–57.
261. Hanratty, T.J., Campbell, J.A., Measurement of wall shear stress. Goldstein, R.J., (eds.) Fluid Mechanics Measurements, 1983, Hemisphere, New York, 559–615.
262. Van Heiningen, A.R.P., Mujumdar, A.S., Douglas, W.J.M., On the use of hot film and cold film sensors for skin friction and heat transfer measurements in impingement flows. Lett. Heat Mass Transfer 3 (1976), 523–528.
263. Bernis, A., Vergnes, F., Le Goff, P., Mihe, J.P., Une sonde a film chaud pour mésure locale et instantanee du coefficient de transfert de chaleur dan un lit fuidise gaz-solide. Power Technol. 17 (1977), 229–234.
264. Creff, R., Andre, P., Influence of a periodically recirculating flow on convective unsteady heat transfer. Tien, C.L., et al. (eds.) Heat Transfer 1986, 3, 1986, Hemisphere, Washington, DC, 1005–1010.
265. Rosiczkowski, J., Hollworth, B., Local and instantaneous heat transfer from an isothermal cylinder oscillating in a cross-flow. Beasley, D.E., Chen, J.L.S., (eds.) Fundamental Experimental Measurements in Heat Transfer, 1991, ASME, New York, 49–56.
266. Beasley, D.E., Figliola, R.S., A generalized analysis of a local heat flux probe. J. Phys. E Sci. Instrum. 21 (1988), 316–322.
267. Suarez, E., Figliola, R. S., and Pitts, D. R. (1983). Instantaneous azimuthal heat transfer coefficients from a horizontal cylinder to a mixed particle size air-fluidized bed. ASME Paper No. 83-HT-93.
268. Figliola, R. S., Beasley, D. E., and Subramanian, C. (1984). Instantaneous heat transfer between an immersed horizontal tube and a gas fluidized bed. ASME Paper No. 84-HT-111.
269. Kawamura, T., Tanaka, S., Macbuchi, I., Kumada, M., Temporal and spatial characteristics of heat transfer at the reattachment region of a backward-facing step. Exp. Heat Transfer 1 (1987), 299–313.
270. Wu, R.L., Lim, C.J., Grace, J.R., The measurement of instantaneous local heat transfer coefficients in a circulating fluidized bed. Can. J. Chem. Eng. 67 (1989), 301–307.
271. Wu, R.L., Lim, C.J., Grace, J.R., Brereton, C.M.H., Instantaneous local heat transfer and hydrodynamics in a circulating fluidized bed. Int. J. Heat Mass Transfer 34 (1991), 2019–2027.
272. Fitzgerald, T.J., Catipovic, N.M., Javanovic, G.N., Instrumented cylinder for studying heat transfer to immersed tubes in fluidized beds. Ind. Eng. Chem. Fundam. 20 (1981), 82–88.
273. Boulos, M.I., Pei, D.C.T., Dynamics of heat transfer from cylinders in a turbulent air stream. Int. J. Heat Mass Transfer 17 (1974), 767–783.
274. Hayward, G.L., Pei, D.C.T., Local heat transfer from a single sphere to a turbulent air stream. Int. J. Heat Mass Transfer 21 (1978), 35–41.
275. Gundappa, M., Diller, T.E., Unsteady heat transfer measurements around a cylinder in pulsating crossflow. Marto, P.J., Tanasaua, I., (eds.) 1987 ASME/JSME Thermal Engineering Joint Conference, 1987, ASME, New York, 629–634.
276. Campbell, D.S., Gundappa, M., Diller, T.E., Design and calibration of a local heat-flux measurement system for unsteady flows. ASME J. Heat Transfer 111 (1989), 552–557.
277. Gatowski, J.A., Smith, M.K., Alkidas, A.C., An experimental investigation of surface thermometry and heat flux. Exp. Thermal Fluid Sci. 2 (1989), 280–292.
278. Whitmore, R. A. (1967). History of heat measurement calibration. 22nd Annual ISA Conference Proceedings, Part II, Paper No. P6-3-PHYMMD-67.
279. ASTM Standard E638-78. (1988). Standard test method for calibration of heat transfer rate calorimeters using a narrow-angle blackbody radiation facility. Annual Book of ASTM Standards, Vol. 15.03, pp. 396–400.
280. Liebert, C. H., and Weikle, D. H. (1989). Heat flux measurements. ASME Paper 89-GT-107.
281. Liebert, C. H. (1985). Heat flux sensor calibration. In Structural Integrity and Durability of Reusable Space Propulsion Systems. NASA Conf. Pub. 2381.
282. Stempel, F.C., Basic heat flow calibration. Instrum. Control Syst. 42:5 (1969), 105–107.
283. Bernstein, F.V., Kinchen, B., The development and evaluation of a radiative heat source for the calibration of transient and steady-state heat flux sensors. ISA Trans. 8:2 (1969), 110–116.
284. Kidd, C. T. (1983). Determination of experimental heal-flux calibrations. AEDC-TR-83-13.
285. Steckler, K. (1992). Personal communication, Building and Fire Research Laboratory, NIST.
286. Kipp, H. W., and Eisworth, E. A. (1981). In-situ calibration of flight heat transfer instrumentation. ASME Paper No. 81-ENAS-131.
287. Alkidas, A.C., Cole, R.M., Transient heat flux measurements in a divided-chamber diesel engine. ASME J. Heat Transfer 107 (1985), 439–444.
288. Alkidas, A.C., Heat transfer characteristics of a spark-ignition engine. ASME J. Heat Transfer 102 (1980), 189–193.
289. Alkidas, A.C., Heat release studies in a divided-chamber diesel engine. ASME J. Eng. Gas Turbines Power 109 (1987), 193–199.
290. Morel, T., Wahiduzzaman, S., Fort, E. F., Tree, D. R., DeWitt, D. P., and Kreider, K. G. (1989). Heat transfer in a cooled and an insulated diesel engine. SAE Paper No. 890572.
291. Assanis, D.N., Badillo, E., On heat transfer measurements in diesel engines using fast-response coaxial thermocouples. ASME J. Eng. Gas Turbines Power 111 (1989), 458–465.
292. Klell, M., Measurement of instantaneous surface temperatures and heat flux in internal combustion engines and comparison with process calculations. Spalding, D.B., Afghan, N.H., (eds.) Heat and Mass Transfer in Gasoline and Diesel Engines, 1989, Hemisphere, Washington, DC, 699–710.
293. Woschni, G., Spindler, W., Heat transfer with insulated combustion chamber walls and its influence on the performance of diesel engines. ASME J. Eng. Power Gas Turbines 110 (1988), 482–502.
294. Graham, R.W., Impact of new instrumentation on advanced turbine research. Lakshminarayana, B., Runstadler, P., (eds.) Measurement Methods in Rotating Components of Turbomachinery, 1980, ASME, New York, 289–302.
295. Metzger, D.E., Mayle, R.E., Gas turbine engines. Mech. Eng. 105:6 (1983), 44–52.
296. Simoneau, R. J., Morehouse, K. A., VanFossen, G. J., and Behning, F. P. (1984). Effect of rotor wake on heat transfer from a circular cylinder. ASME Paper No. 84-HT-25.
297. Simoneau, R. J., Hendricks, R. C., and Gladden, H. J. (1988). Heat transfer in aerospace propulsion. NASA-TM-100874.
298. Dunn, M.G., Seymour, P.J., Woodward, S.H., George, W.K., Chupp, R.E., Phase-resolved heat-flux measurements on the blade of a full-scale rotating turbine. ASME J. Turbomachinery 111 (1989), 8–19.
299. Guenette, G. R., Epstein, A. H., Norton, R. J. G., and Yuzhang, C. (1985). Time resolved measurements of a turbine rotor stationary tip casting pressure and heat transfer field. AIAA Paper No. 85–1220.
300. Guenette, G.R., Epstein, A.H., Giles, M.B., Haimes, R., Norton, R.J.G., Fully scaled transonic turbine rotor heat transfer measurements. ASME J. Turbomachinery 111 (1989), 1–7.
301. Epstein, A.H., Short duration testing for turbomachinery research and development. Kim, J.H., Yang, W.J., (eds.) Transport Phenomena in Rotating Machinery, 1989, Hemisphere, Washington, DC, 243–271.
302. Simmons, S.G., Hager, J.M., Diller, T.E., Simultaneous measurement of time-resolved surface heat flux and freestream turbulence at a stagnation point. Hetsroni, G., (eds.) Heat Transfer 1990, 2, 1990, Hemisphere, New York, 375–380.
303. Mancuso, T., Diller, T.E., Time-resolved heat flux measurements in unsteady flow. Beasley, D.E., Chen, J.L.S., (eds.) Fundamental Experimental Measurements in Heat Transfer, 1991, ASME, New York, 67–74.
304. Swisher, S.E., Diller, T.E., Pierce, F.J., Time-resolved heat flux measurements in a turbulent junction vortex. Keyhani, M., et al. (eds.) Topics in Heat Transfer, 1992, ASME, New York, 55–63.
305. Mori, Y., Uchida, Y., Sakai, K., A study of the time and spatial structure of heat transfer performances near the reattaching point of separated flows. Tien, C.L., et al. (eds.) Heat Transfer 1986, 3, 1986, Hemisphere, Washington, DC, 1083–1088.
306. VanFossen, G.J., Simoneau, R.J., A study of the relationship between free-stream turbulence and stagnation region heat transfer. ASME J. Heat Transfer 109 (1987), 10–15.