Fluid Mechanics and Wind Engineering Program

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Fluid Mechanics and Wind Engineering Program PUBLICATIONS Papers - Reports - Theses - Dissertations Fluid Mechanics and Wind Engineering Program Compiled by E. J. Jones J. L. Steinhoff Publications listed herein may be obtained by writing to: J.E. Cermak, Professor-in-Charge Fluid Mechanics & Wind Engineering Program and Director, Fluid Dynamics & Diffusion Laboratory Department of Civil Engineering Colorado State University Fort Collins, Colorado 80523 CER82-83JEC-EJJ-JLS27 1/3/83 FLUID MECHANICS AND WIND ENGINEERING PROGRAM Department of Civil Engineering College of Engineering Colorado State University Fort Collins, Colorado 80523 PAPERS - REPORTS - THESES - DISSERTATIONS 1. Peterson, D. F., Jr. and J. E. Cermak, Discussions of ASCE Paper No. 2437, ELASTIC RESTRAINT EQUATIONS FOR SEMI-RIGID CONNECTIONS by J. E. Lothers, Trans. ASCE, Vol. 116, 1951. 2. Yih, C. S. and J. E. Cermak, LAMINAR HEAT CONVECTION IN PIPES AND DUCTS, Technical Report, Contract No. N9 ONR-82401, Report No. 5, September 1951, CER47-52CSY8. 3. Cermak, J. E., R. K. Thomas and M. L. Albertson, DETERMINATION OF WIND CHILL ON A LIFE-SIZED CLOTHED COPPER MAN, Final Report, Contract No. DA44-109-qm-584, June 1952, CER47-52JEC49. 4. Cermak, J.E., APPLICATION OF MODEL TECHNIQUES TO MASS TRANSFER AND EVAPORATION STUDIES, Paper Presentation, Centennial of Engineering, Chicago, Illinois, September 1952, CER53JEC2. 5. Yih, C. S., J. E. Cermak and R. T. Shen, TEMPERATURE DISTRIBUTION IN THE BOUNDARY LAYER OF AN AIRPLANE WING WITH A LINE SOURCE OF HEAT AT · THE STAGNATION EDGE, PART I, SYMMETRIC WING IN SYMMETRIC FLOW, Technial Report, Contract No. Nonr544(00), October 1952, CER53CSY5, AD-9-799. 6. Cermak, J.E. and H.J. Koloseus, LAKE HEFNER MODEL STUDIES OF WIND STRUCTURE AND EVAPORATION, Technical Report, Contract No. NObsr-5 7053, Part I, November 1953, CER54JEC20 and Part II, July 1954, CER54JEC22, AD-105-493. 7. Cermak, J. E. and H. J. Koloseus, DEVELOPMENT OF A MINIATURE AIR VELOCITY INDICATOR, Technical Report to Directing Agency, Special Activities, Signal Corps, Engineering Laboratories, Fort Monmouth, New Jersey, August 1954, CER54JEC23. 8. Sadar, D. J. , PRELIMINARY STUDY OF SEDIMENT SAMPLING EFFICIENCY, M.S. Thesis, November 1954. 9. Cermak, J. E. and P. N. Lin, VAPOR TRANSFER BY FORCED CONVECTION FROM A SMOOTH PLANE BOUNDARY, Technical Report, Contract No. N90NR 82401, Nr063-071/1-19-49, Fort Collins, Colorado, January 1955, CER55JEC1, AD-59-945. 10. McFarland, W. W., EFFECT OF RIM HEIGHT ON THE RATE OF EVAPORATION FROM PANS, M.S. Thesis, November 1955. 2 11. Cermak, J.E. and A. C. Spengos, HEAT TRANSFER BY FORCED CONVECTION FROM A HORIZONTAL FLAT PLATE INTO A TURBULENT BOUNDARY LAYER, Proceedings Heat Transfer and Fluid Mechanics Institute, Stanford University, June 1956, CER56JEC21. 12. Cermak, J. E. and A. C. Spengos, TURBULENT DIFFUSION OF MOMENTUM AND HEAT FROM A SMOOTH PLANE BOUNDARY WITH ZERO PRESSURE GRADIENT, Technical Report, Contract AF19(604)-421, Part I, August 1956, CER56ACS12 and Part II, December 1956, CER56JEC22. 13 . Ne 1 son, D. F . , THE EFFECT OF SHAPE OF A PLANE , SMOOTH SATURATED SURFACE ON THE EVAPORATION RATE, M.S. Thesis, August 1957. 14. Cermak, J.E. and M. L. Albertson, USE OF WIND TUNNELS IN THE STUDY OF ATMOSPHERIC PHENOMENON, Paper Presentation, Air Pollution Control Association's Annual Meeting, Paper No, 58-32, Philadelphia, Pennsylvania, May 1958, CER58JEC18. 15. Cermak, J. E. , WIND TUNNEL FOR THE STUDY OF TURBULENCE IN THE ATMOSPHERIC SURFACE LAYER, Final Report, Contract AF19(604)-1706, November 1958, CER58JEC42. 16. Chanda, B. , TURBULENT BOUNDARY LAYER OVER HEATED AND UNHEATED, PLANE, ROUGH SURFACES, Ph.D. Dissertation, May 1958, CED58BC1, also Scientific Report No. 1, Department of Civil Engineering, CER58BC21. 17. Cermak, J. E. , THE TURBULENT BOUNDARY LAYER AT THE LOW REYNOLDS NUMBERS WITH UNSTABLE DENSITY STRATIFICATION PRODUCED BY HEATING, Ph.D. Dissertation, Cornell University, Ithaca, New York, March 1959, CED59JEC1. 18. Nelson, R. W., THE MEASUREMENT OF PERMEABILITY IN NON-HOMOGENEOUS MEDIA THROUGH AN ANALYSIS OF THE STEADY POTENTIAL DISTRIBU- TION, M.S. Thesis, May 1959. 19. Poreh, M., FLOW CHARACTERISTICS OF A CIRCULAR SUBMERGED JET IMPINGING NORMALLY ON A SMOOTH BOUNDARY, M.S. Thesis, February 1959, CET59MP2. (Poreh, M. and J. E. Cermak, Proceedings 6th Midwestern Mechanics Conference, University of Texas, Austin, Texas, September 1959, CER59MP-JEC67). 20. Sandborn, V. A., MEASUREMENTS OF INTERMITTENCY OF TURBULENT MOTION IN A BOUNDARY LAYER, Journal of Fluid Mechanics, §_, 1959, CEP58VAS1. 21. Earle, E. N., MEAN VELOCITY PROFILES FOR FLOW OVER A PLANE, SMOOTH, HEATED BOUNDARY, M.S. Thesis, May 1960. 22. Cermak, J. E., A STUDY OF SHEAR STRESS AT A FLUID-SOLID INTERFACE BY MEASUREMENT OF THE ELECTROKINETIC POTENTIAL, Technical Report, Research Corporation, New York, New York, 1 March 1960, CER60JEC15. 3 23. Binder, G., ELECTROKINETIC-POTENTIAL FLUCTUATIONS PRODUCED BY TURBULENCE AT A SOLID-LIQUID INTERFACE, Ph.D. Dissertation, Colorado State University, 1960. 24. Plate, E. J. and J.E. Cermak, A STUDY OF DESIGN AND OPERATION OF A LOW SPEED PRECISION WIND INSTRUMENT TEST FACILITY, Technical Report, Contract DA29-040-0RD-2346, November 1960, CER60EJPS8. 25. Baldwin, L.V., V. A. Sandborn , and J. C. Laurence, HEAT TRANSFER FROM YAWED CYLINDERS IN RAREFIED AIRFLOW, ASME paper, No. 50-HT-S, 1960, CEP60VAS-LVB14. 26. Sandborn, V. A., L. V. Baldwin and J. C. Laurence, HEAT TRANSFER FROM TRANSVERSE AND YAWED CYCLINDER IN CONTINUUM, SLIP AND FREE MOLECULE AIR FLOW, Paper in ASME Transactions Journal of Heat Transfer, Series C, Vol. 82, 1960, CEP60VAS-LVB13. 2 7. Sandborn, V. A. and R. J. Wisneiwski, HOT-WIRE EXPLORATION OF TRANSITION OF CONES IN SUPERSONIC FLOW, Paper in the Proceed- ings of the 1960 Heat Transfer and Fluid Mechanics Institute, Stanford University Press, 1960, CEP60VAS3. 28. Cermak, J. E. and E. J. Plate, SPECIFICATIONS FOR THE TEMPERATURE AND HUMIDIFICATION CONTROL UNITS OF THE MICROMETEOROLOGICAL WIND TUNNEL AT COLORADO STATE UNIVERSITY, Technical Report, White Sands Missile Range, New Mexico, Contract No. DA-36-039-SC-80371, June 1961, CER61EJP36. 29. Nagabhushanaiah, H. S., SEPARATION FLOW DOWNSTREAM OF A PLATE SET NORMAL TO A PLANE BOUNDARY, Ph.D. Dissertation, October 1961. 30. Baldwin, L. V. and V. A. Sandborn, THEORY AND APPLICATION OF HOT- WIRE CALORIMETER FOR MEASUREMENT OF ION BEAM POWER, Paper in Progress in Aeronautics and Rocketry, Vol. 5, Electrostatic Propulsion, Academic Press, New York, 1961, CEP61VAS-LVB13. 31. Sandborn, V. A. and S. J. Kline, FLOW MODELS IN BOUNDARY-LAYER STALL INCEPTION, Journal of Basic Engineering, Trans. ASME Ser. D., Vol. 83, 1961, CEP61VAS3. 32. Sandborn, V. A. and J. C. Laurence, HEAT TRANSFER FROM CYLINDERS, Paper at the ASME Symposium on Measurement in Unsteady Flow, 1962, CEP62VAS16. 33. Sandborn, V. A. , APPL I CATION OF THE HOT-WIRE, RESISTANCE- TEMPERATURE TRANSDUCER TO THE MEASUREMENT OF TRANSIENT FLOW QUANTITIES, Paper at the ASME Symposium on Measurement in Unsteady Flow, 1962, CEP62VAS4. 34. Chuang, H., ELECTROKINETIC-POTENTIAL FLUCTUATIONS PRODUCED BY TURBULENCE IN FULLY DEVELOPED PIPE FLOW, Ph.D. Dissertation, Colorado State University, 1962, CED62HC13. 35. Duckstein, L., ELECTROKINETIC-POTENTIAL FLUCTUATIONS GENERATED BY JET IMPINGEMENT AT A SOLID-LIQUID INTERFACE, Ph.D. Disserta- tion, Colorado State University, 1962, CED62LD2. 4 36. Tsuei, Y. G., AXISYMMETRIC BOUNDARY-LAYER OF A JET IMPINGING ON A SMOOTH PLATE, Ph.D. Dissertation, August 1962, CED62YT11. 37. Malhotra, R. C. and J. E. Cermak, WIND-TUNNEL MODELING OF ATMOSPHERIC DIFFUSION, Journal of Geophysical Research, Vol. 68, No. 8, pp. 2181-2184, April 15, 1963, also Paper Presenta- tion, Third Air Pollution Research Seminar, New Orleans, Louisiana, March 1960, CEP62RCM-JEC9. 38. Malhotra, R. C., DIFFUSION FROM A POINT SOURCE IN A TURBULENT BOUNDARY WITH UNSTABLE DENSITY STRATIFICATION, Ph.D. Disserta- tion, March 1962, CED62RCM7. 39. Plate, E. J. and J. E. Cermak, MICROMETEOROLOGICAL WIND TUNNEL FACILITY, DESCRIPTION AND CHARACTERISTICS, Final Report, Contract No. DA36-039-SC-80371 with U.S. Army Electronic Research and Development Activity, Fort Huachuca, Arizona, February 1963, CER63EJP-JEC9. 40. Cermak, J.E., R. C. Malhotra and E. J. Plate, INVESTIGATION OF THE CANDLESTICK PARK WIND PROBLEM, Vol. II: WIND-TUNNEL MODEL STUDY, Tech. Rept., Metronics Associates, Inc., Palo Alto, California, July 1963, CER63JEC-RCM-EJP27. 41. Cermak, J. E. and E. J. Plate, INVESTIGATIONS TO DEVELOP WIND TUNNEL TECHNIQUES FOR MEASURING ATMOSPHERIC GASEOUS DIFFUSION IN MODEL VEGETATIVE SURFACE, Tech. Rept., U.S. Dept. of Agri- culture, ARS, Contract No. 12-13-100-4546(41), July 1963, CER63EJP-JEC28. 42. Binder, G. J. and J. E. Cermak, STREAMING-POTENTIAL FLUCTUATIONS PRODUCED BY TURBULENCE, Physics of Fluids, Vol. 6, No. 8, pp. 1192-1193, August 1963, CEP63GJB-JEC11. 43. Cermak, J. E. and W. A. Perkins, INVESTIGATION OF THE CANDLESTICK PARK WIND PROBLEM, Vol. III: CONCLUSIONS, RECOMMENDATIONS AND SUMMARY OF INVESTIGATION, Tech. Rept., No. 102, Aerosol Labor- atory, Metronics Associates, Inc., Palo Alto, California, August 1963, CER63JEC41. 44. Plate, E. J., THE DRAG ON A SMOOTH FLAT PLATE WITH A FENCE IMMERSED IN ITS TURBULENT BOUNDARY LAYER, Presented at the Fluids Engineering Conference, Philadelphia, Pa. , May 18-21, 1964, ASME Paper No. 64-FE-17, pp. 1-12, CER63EJP-66. 45. Cermak, J. E., LAGRANGIAN SIMILARITY HYPOTHESIS APPLIED TO DIFFUSION IN TURBULENT SHEAR FLOW, Journal of Fluid Mechanics, Vol. 15, Part I, pp. 49-64, 1963, CEP63JEC13. 46. Sandborn, V. A., H. Weisblatt and R. F. Flagg, TEST TIME IN A 1.5 INCH DIAMETER HIGH STAGNATION ENTHALPY SHOCK TUBE, Journal of the AIAA, Vol. 1, 1963, CEP63VAS6. 47. Sandborn, V. A. and A. Todisco, SHOCK TUBE MEASUREMENTS OF THE THERMAL CONDUCTIVITY, RELAXIZATION AND IONIZATION OF AIR AND ABLATION GASES, 1963, AVCO-RAD-RM. 5 48. Davar, K. S., DIFFUSION FROM A POINT SOURCE WITHIN A TURBULENT BOUNDARY LAYER, Ph.D. Dissertation, July 1961, CED61KSD3. 49. Davar, K. S. and J. E. Cermak, CHARACTERISTICS OF DIFFUSION PLUMES FOR A POINT SOURCE WITHIN A TURBULENT BOUNDARY LAYER, Int.
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