Development of vertical wind and turbulence profiles of wind tunnel boundary layers

Transactions of the American Society of Agricultural Engineers

Volumn 47, Issue 5, 2004, Pages 1717-1726

  Lee, I B ^a,b   Kang, C ^a   Lee, S ^a   Kim, G ^a   Heo, J ^a   Sase, S ^a  

^a NATIONAL INSTITUTE FOR RURAL ENGINEERING   (Japan)

^b National Institute of Animal Science   (South Korea)

Author keywords

Aerodynamics; Boundary layer; Turbulence; Wind tunnel; Wind velocity

Indexed keywords

AERODYNAMICS; AGRICULTURE; BOUNDARY LAYERS; CIVIL ENGINEERING; ENVIRONMENTAL ENGINEERING; PLANTS (BOTANY); TURBULENCE;

AGRICULTURAL BUILDINGS; NATIONAL INSTITUTE OF AGRICULTURAL ENGINEERING (NIAE), KOREA; VERTICAL WIND;

WIND TUNNELS;

AERODYNAMICS; BOUNDARY LAYER; TURBULENCE; WIND TUNNEL; WIND VELOCITY;

AERODYNAMICS; AGRICULTURE; BOUNDARIES; CIVIL ENGINEERING; POLLUTION CONTROL; TUNNELS; TURBULENCE;

EID: 11144305855     PISSN: 00012351     EISSN: None     Source Type: Journal    
DOI: None     Document Type: Article

References (31)

1. AIJ. 1996. AIJ Recommendation for Loads on Buildings. Tokyo, Japan: Architectural Institute of Japan.
2. AIK. 2000. AIK Description and Design of Wind Load. Seoul, Korea: Architectural Institute of Korea.
3. ANSMDL. 1985. American National Standard Minimum Design Loads for Buildings and Other Structures. Washington, D.C.: ANSI.
4. CAK. 2001. Climatic Atlas of Korea. Seoul, Korea: Korea Meteorological Administration.
5. Chang, H., Y. Kim, and K. Hwang. 1997. Introduction of wind tunnel laboratory: Hyundai Institute of Construction Technology. J. Wind Eng. (Korea) 1(1): 58-65.
6. Choiniere, Y., and J. Munroe. 1994. A wind tunnel study of wind direction effects on airflow patterns in naturally ventilated swine buildings. J. Canadian Agric. Eng. 36(2): 93-101.
7. Cook, N. 1997a. The Designer's Guide to Wind Loading of Building Structures: Part 1. Oxford, U.K.: Butterworth.
8. Cook, N. 1997b. The Designer's Guide to Wind Loading of Building Structures: Part 2. Oxford, U.K.: Butterworth.
9. Fox, R., and A. McDonald. 1992. Introduction to Fluid Mechanics. 4th ed. New York, N.Y.: John Wiley and Sons.
10. Gong, W. 1991. A wind tunnel study of turbulent dispersion over two-and three-dimensional gentle hills from upwind point sources in neutral flow. Boundary-Layer Meteorology 54(2): 211-230.
11. Ha, Y. 1999. Introduction of architectural boundary layer wind tunnel laboratory in Kumoh National University of Technology.Korean Soc. Architectural Eng. 6(1): 71-75.
12. Hoxey, R. P., and P. J. Richards. 1992. Structures of the atmospheric boundary layer below 25 m and implications to wind loading on low-rise buildings. J. Wind Eng.and Ind. Aerodynamics 44(2): 317-327.
13. Irwin, H. P. A. H. 1979. Design and use of spires for natural wind simulation. NAE Report LTR-LA-233. Ottawa, Ontario: National Research Council of Canada.
14. Irwin, H. P. A. H. 1981. The design of spires for wind simulation. J. Wind Eng.and Ind. Aerodynamics 7(2): 361-366.
15. Ishizaki, H., J. Katsura, and Y. Taniike. 1986. An experimental study on turbulent boundary layer developed over the urban area. In 1986 Symposium on Wind Engineering, 91-98. Tokyo, Japan: Japanese Society of Wind Engineering.
16. Isyumov, N. 1982. Wind Tunnel Modeling for Civil Engineering Application. Cambridge, U.K.: Cambridge University Press.
17. Lee, I., S. Sase, L. Okushima, and A. Ikeguchi. 2001. Performance of particle image velocimetry (PIV) for aerodynamic study of natural ventilation in large-sized multi-span greenhouses. ASAE Paper No. 014055. St. Joseph, Mich.: ASAE.
18. Lee, I., S. Sase, L. Okushima, A. Ikeguchi, and W. Park. 2002. The accuracy of computational simulation for a naturally ventilated multi-span greenhouse. ASAE Paper No. 024012. St. Joseph, Mich.: ASAE.
19. Lee, I., K. Choi, J. Yun, J. Jeun, and G. Kim. 2003a. Optimization of a large-size wind tunnel for aerodynamic study of agriculture. ASAE Paper No. 034068. St. Joseph, Mich.: ASAE.
20. Lee, I., S. Sase, L. Okushima, A. Ikeguchi, K. Choi, and J. Yun. 2003b. A wind tunnel study of natural ventilation for multi-span greenhouse scale models using two-dimensional particle image velocimetry (PIV). Trans. ASAE 46(3): 763-772.
21. Liu, G., J. Xuan, and S. Park. 2003. A new method to calculate wind profile parameters of the wind tunnel boundary layer. J. Wind Eng. and Industrial Aerodynamics 91(4): 1155-1162.
22. Mao, G., and K. Kurata. 1997. Wind tunnel experiment on turbulent diffusion suppression by row covers. Agric. and Forest Meteorology 86(3-4): 283-290.
23. Meroney, N., and W. Melbourne. 1992. Operating ranges of meteorological wind tunnels for the simulation of convective boundary layer (CBL) phenomena. Boundary-Layer Meteorology 61(1): 145-174.
24. Ohkuma, T., H. Marukawa, and K. Miyashita. 1986. An experimental study on turbulent boundary layer developed over the urban area. In 1986 Symposium on Wind Engineering, 61-66. Tokyo, Japan: Japanese Society of Wind Engineering.
25. Ohya, Y. 2001. Wind tunnel study of atmospheric stable boundary layers over a rough surface. Boundary-Layer Meteorology 98(1): 57-82.
26. Okushima, L., S. Sase, T. Maekawa, A. Ikeguchi, and B. Bailey. 2000. J. Soc. Agric. Structures (Japan) 30(4): 343-352.
27. Richardson, G. M., and P. A. Blackmore. 1995. The Silsoe structures building: Comparison of 1:100 model-scale data with full-scale data. J. Wind Eng. and Ind. Aerodynamics 57(1): 191-201.
28. Richardson, G. M., R. P. Hoxey, A. P. Robertson, and J. L. Short. 1997. The Silsoe structures building: Comparisons of pressures measured at full scale and in two wind tunnels. J. Wind Eng. and Ind. Aerodynamics 72(1): 187-197.
29. Robertson, A., and P. Moran. 1986. Comparison of full-scale and wind tunnel measurements of wind loads on a free-standing canopy roof structure. J. Wind Eng. and Ind. Aerodynamics 23(1): 113-125.
30. Sase, S., M. Nara. 1984. Wind tunnel testing on airflow and temperature distribution of a naturally ventilated greenhouse. Acta Horticulture 148: 329-336.
31. Simiu, E., and R. H. Scanlan. 1996. Wind Effects on Structures. New York, N.Y.: John Wiley and Sons.