Full-coverage discrete hole wall cooling: Discharge coefficients

Journal of Engineering for Gas Turbines and Power

Volumn 106, Issue 1, 1984, Pages 183-192

  Andrews, G E ^a   Mkpadi, M C ^a  

^a UNIVERSITY OF LEEDS   (United Kingdom)

Author keywords

[No Author keywords available]

Indexed keywords

GAS TURBINES;

EID: 0021161261     PISSN: 07424795     EISSN: 15288919     Source Type: Journal    
DOI: 10.1115/1.3239533     Document Type: Article

References (37)

1. Jackson, S. R., and Odgers, J., “Factors Influencing Heat Release in Combustion Chambers,” Combustion in Advanced Gas Turbine Systems, Cranfield, 1968, Pergamon Press.
2. Bayley, F. J., Carnforth, J. W., and Turner, A. B., “Experiments on a Transpiration Cooled Combustion Chamber,” Proc. I. Mech. E., Vol. 187, 1973, p.158.
3. Wolf, J. C., Moskowitz, S., and Manning, G. R., “Development of a High Temperature Turbine for Operation on Coal-Derived Fuel,” ASME Paper No. 80-GT-188.
4. Nealy, D. A., and Reider, S. R., “Evaluation of Laminated Porous Wall Materials for Combustor Liner Cooling,” ASME Paper No. 79-GT-100.
5. Wassell, A. B., and Bhangu, K., “The Development and Application of Improved Combustor Wall Cooling Techniques,” ASME Paper No. 80-GT-66.
6. Le Brocq, P. V., Saunder, B. E., and Priddin, C. H., “Discrete Hole Injection as a Means of Transpiration Cooling-An Experimental Study,” Proc. I. Mech. E., Vol. 187,1973, p. 149.
7. Kasagi, N., Hirati, M., and Kumaha, M., “Studies of Full Coverage Film Cooling Part 1: Cooling Effectiveness of Thermally Conductive Wall,” ASME Paper No. 81-GT-37.
8. Metzger, P. E., Takeuchi, D. I., and Kyenstler, P. A., “Effectiveness and Heat Transfer With Full Coverage Film Cooling,” ASME Journal of Engineering for Power, July 1973, p. 180.
9. Lichtarowicz, A., Duggins, R. K., and Markland, E., “Discharge Coefficients for Incompressible Iron-Cavitating Flow Through Long Orifices,” J. Mech. Eng. Sci., Vol. 7,1965, p. 210.
10. Nakayama, Y., “Action of the Fluid in the Air Micrometer, I,” Bull. JSME, Vol. 4,1961, pp. 507-515.
11. Nakayama, Y., “Action of the Fluid in the Air Micrometer, II,” Bull. JSME, Vol. 4, 1961, pp. 516-524.
12. Bean, H. S., Fluid Meters, ASME, 6th ed., 1971.
13. Asihmin, V. I., et al., “Discharge of a Real Fluid from Cylindrical Orifices,” Oil Ind., Moscow, Vol. 9,1961, p. 55.
14. Jackson, R. A., “The Compressible Discharge of Air Through Small Thick Plate Orifices,” App. Sci. Res., Vol. A13, 1963, p. 241.
15. Grace, H. P., and Lapple, C. E., “Discharge Coefficients of Small Diameter Orifices and Flow Nozzles,” ASME Transactions, Vol. 73, 1951, p. 639.
16. Spikes, R. H., and Pennington, G. A., “Discharge Coefficients of Small Submerged Orifices,” ASME Transactions, Vol. 173,1959, p. 661.
17. Deckker, R. E. L., and Chang, Y. F., “An Investigation of Steady Compressible Flow Through Thick Orifices,” Proc. 1. Mech. E., Vol. 180, 1965, p. 321.
18. Koennecke, W., “New Nozzle Shapes for Low and Medium Reynolds Numbers,” Forch Auf Dem Gele if Des Ingenieur Wesens, Vol. 9,1938, p. 109.
19. Rhode, J. E., Richards, H. T., and Metger, G. W., “Discharge Coef-ficients for Thick Plate Orifices with Approach Flow Perpendicular and In-clinedtotheOrificeAxis,” NASA TN5467, 1969.
20. Dannenberg, R. E., Gambucci, B. J., and Weiberg, S. A., “Perforated Sheets as a Porous Material for Distributed Suction and Injection,” NACATN 3669,1956.
21. Stokes, G. M., Davis, D. D., and Sellers, T. B., “An Experimental Study of Porosity Characteristics of Perforated Materials in Normal and Parallel Flow,” NACATN 3085, 1954.
22. Mayfield, F. D., et al., “Perforated Plate Distillution Columns,” Proc. 1. Mech. E, Sept. 1952, p. 2238.
23. Damerow, W. P., et al., “Experimental and Analytical Investigations of the Coolant Flow Characteristics in Cooled Turbine Aerofoils,” NASA CR 120883,1972.
24. Smith, P. L., and Van Winkle, M., “Discharge Coefficients Through Perforated Plates,” JAIChE, Vol. 4,1958, p. 266.
25. Dewey, P. E, “A Preliminary Investigation of Small inclined Air Outlets at Transonic Mach Numbers,” NACATN 3442,1955.
26. Ward-Smith, A. J., Pressure Losses in Ducted Flows, Butterworths, 1971.
27. Rouse, H., and Abdul-Fetoug, A. H., “Characteristics of Irrational Flow Through Axially Symmetric Orifices,” ASME Transactions, Vol. 72,1950, pp. 421-426.
28. Osborne, W. C., and Turner, C. G., eds., Woods Practical Guide to Fan Engineering, 2d ed., 1961, Woods of Colchester, p. 119.
29. Benedict, R. P., Carlucci, N. A., and Swetz, S. D., “Flow Loses in Abrupt Enlargements and Contractions,” ASME Journal of'Engineering for Power, Vol. 88,1966, pp. 23-81.
30. ESDU, “Pressure Losses in Flow Through a Sudden Contraction of Duct Area,” ESDU 78007, Dec. 1977.;
31. ESDU, “Flow Through a Sudden Enlargement of Area in a Duct,” ESDU 72011, June 1972.
32. Ward-Smith, A. J., Internal Fluid Flow, Clarendon Press, Oxford, 1980.
33. Astarita, G., and Greco, G., “Excess Pressure Drops in Laminar Flow Through a Sudden Contraction,” I/EC Fundamentals, Vol. 7, 1968, p. 27.
34. Barozzi, G. S., Dumas, A., and Pompoli, R., “The Influence of an Abrupt Convergence on Heat Transfer in Circular Ducts,” International Journal of Heat Fluid Flow, Vol. 3,1982, pp. 45-51.
35. ESDU, “Friction Losses for Fully Developed Flow in Straight Pipes,” ESDU 66027, Sept. 1966.
36. Kazantsev, E. I., Industrial Furnaces, MIR Publishers, Moscow, 1977.
37. Andrews, G. E., Gupta, M. L., and Mkpadi, M. C., “Heat Transfer Within Arrays of Short Holes in a Heated Plate,” to be published. 38 McAdams, Heat Transmission, McGraw-Hill, Kogatusha, 3d ed., 1954, pp. 224-226,239.