Published Papers

Special Issue Papers

Wind effects on Buildings and their environment: codification and standardisation

Theodore Stathopoulos and Hatem Alrawashdeh
Pages: 1-9Published: 23 Jan 2026
DOI: 10.33430/V31N5WINDENGI-1
Cite thisHide

Stathopoulos T and Alrawashdeh H, Wind effects on Buildings and their environment: codification and standardisation, HKIE Transactions, Vol. 31, No. 5 (HKWES Special Issue), Article WindEngi-1, 2026, 10.33430/V31N5WINDENGI-1

 Copy

Abstract:

There is a growing interest in wind-induced structural effects within the field of wind engineering. The paper explores recent breakthroughs and advancements made in the wind engineering design over the past four decades. The various approaches employed in wind engineering, including wind tunnel testing, computational fluid dynamics (CFD) and field measurements, are highlighted. Furthermore, the paper critically examines the evolution of wind codes and standards, particularly focusing on their application to low-rise buildings and their attachments, while also addressing emerging research areas such as nonsynoptic wind effects on buildings, wind loads and effects on building-attached/integrated photovoltaics (BAPVs/BIPVs), the advancement of numerical methods in structural wind engineering and the possible implementation of performancebased wind engineering. The paper provides valuable insights into the future directions of wind engineering, with a particular focus on contributions to the development of wind codes and standards at both national and international levels. 

Keywords:

Wind engineering; wind codes and standards; CFD; wind tunnel; low-rise buildings; attachments

Reference List:

1. Aldoum M, Stathopoulos T, Chavez M and Baskaran A (2023). Wind loading on a stepped roof building: Comparison of field measurements, wind tunnel data, and standard provisions. Journal of Wind Engineering and Industrial Aerodynamics, 238, pp. 105441.
2. Aldoum M and Stathopoulos T (2020). Wind loads on low-slope roofs of buildings with large plan dimensions. Engineering Structures, 225, PP. 111298.
3. Alrawashdeh H and Stathopoulos T (2015). Wind pressures on large roofs of low buildings and wind codes and standards. Journal of Wind Engineering and Industrial Aerodynamics, 147, pp. 212–225.
4. Alrawashdeh H and Stathopoulos T (2020). Wind loads on solar panels mounted on flat roofs: Effect of geometric scale. Journal of Wind Engineering and Industrial Aerodynamics, 206, pp. 104339.
5. Alrawashdeh H and Stathopoulos T (2022). Experimental investigation of the wind loading on solar panels: Effects of clearance off flat roofs. Journal of Structural Engineering, 148(12), pp.04022202.
6. Alrawashdeh H and Stathopoulos T (2023a). Non-synoptic wind effects on buildings: Current perspectives on research and practice. in 16th IAWE International Conference on Wind Engineering, Florence, Italy.
7. Alrawashdeh H and Stathopoulos T (2023b). Wind loading of rooftop PV panels cover plate: A codification-oriented study. Journal of Wind Engineering and Industrial Aerodynamics, 240, pp.105489.
8. ANSI A58.1 (1972). Building code requirements for minimum design loads in buildings and structures. American National Standards Institute, New York, N.Y., USA.
9. ASCE/SEI 49 (2021). Wind tunnel testing for buildings and other structures. American Society of Civil Engineers, Reston, VA, USA.
10. ASCE/SEI 7 (2022). Minimum design loads and associated criteria for buildings and other structures. American Society of Civil Engineers, Reston, VA, USA.
11. Athanasiou A, Dakour M, Pejmanfar S, Tirca L and Stathopoulos T (2022). Multihazard performancebased assessment framework for multistory steel buildings. Journal of Structural Engineering, 148(6).
12. Athanasiou A, Tirca L and Stathopoulos T (2022). Nonlinear Wind and Earthquake Loads on Tall Steel-Braced Frame Buildings. Journal of Structural Engineering, 148(8).
13. Baskaran A and Stathopoulos T (1988). Roof corner wind loads and parapet configurations. Journal of Wind Engineering and Industrial Aerodynamics, 29(1–3), pp. 79-88.
14. Baskaran A and Stathopoulos T (1989). Computational evaluation of wind effects on buildings. Building and Environment, 24(4), pp. 325-333.
15. Baskaran A and Stathopoulos T (1992). Influence of computational parameters on the evaluation of wind effects on the building envelope. Building and Environment, 27(1), pp. 39-49.
16. Baskaran A and Stathopoulos T (1993). Numerical computation of wind pressures on buildings. Computers and Structures, 46(6), pp.1029-1039.
17. Bitsuamlak G, Stathopoulos T and Bédard C (2006). Effects of upstream two-dimensional hills on design wind loads: A computational approach. in Wind and Structures, An International Journal, 9(1).
18. Candelario JD, Stathopoulos T and Zisis I (2014). Wind loading on attached canopies: Codification study. Journal of Structural Engineering, 140(5), pp.4014007.
19. Chavez M, Baskaran A, Aldoum M, Stathopoulos T, Geleta TN and Bitsuamlak GT (2022). Wind loading on a low-slope gabled roof: Comparison of field measurements, wind tunnel data, and code provisions. Engineering Structures, 267, pp. 114646.
20. Davenport AG (2002). Past, present and future of wind engineering. Journal of Wind Engineering and Industrial Aerodynamics, 90(12–15), pp. 1371-1380.
21. Davenport AG, Surry D and Stathopoulos T (1977). Wind loading on low-rise buildings: Final report on phases I and II. BLWT-SS7, the University of Western Ontario, London, Ontario, Canada.
22. Davenport AG, Surry D and Stathopoulos T (1978).Wind Loads on Low-Rise Buildings, Final Report on Phase III. BLWT-SS8, the University of Western Ontario, London, Ontario, Canada.
23. Doudak G, McClure G, Smith I and Stathopoulos T (2009). Comparison of field and wind tunnel pressure coefficients for a light-frame industrial building. Journal of Structural Engineering, 135(10).
24. GB 50009 (2012). Load code for the design of building structures. Ministry of Housing and Urban-Rural Construction of the People’s Republic of China, China Architecture and Building Press, Beijing, China.
25. ISO 4354 (1997). Wind actions on structures. International Organization for Standardization, Geneva, Switzerland.
26. ISO 4354 (2009). Wind actions on structures. International Organization for Standardization, Geneva, Switzerland.
27. NBCC (2020). National Building Code of Canada 2020. Canadian Commission on Building and Fire Codes, National Research Council of Canada, Ottawa, Ontario, Canada.
28. Potsis T and Stathopoulos T (2022a). A novel computational approach for an improved expressionof the spectral content in the lower atmospheric boundary layer. Buildings, 12(6), pp. 1-21.
29. Rounis DE, Ioannidis Z, Sigounis AM, Athienitis A and Stathopoulos T (2022b). A novel approach for the modelling of convective phenomena for building integrated photovoltaic thermal (BIPV/T) systems. Solar Energy, 232, pp. 328-343.
30. Rounis ED, Athienitis AK and Stathopoulos T (2021). BIPV/T curtain wall systems: Design, development and testing. Journal of Building Engineering, 42, pp.103019.
31. Saathoff PJ and Stathopoulos T (1992). Wind loads on buildings with sawtooth roofs. Journal of Structural Engineering, 118(2), pp. 429–446.
32. Sakib FA, Stathopoulos T and Bhowmick AK (2021). A review of wind loads on canopies attached to walls of low-rise buildings. Engineering Structures, 230, pp.111656.
33. Shao S, Stathopoulos T, Yang Q and Tian Y (2018). Wind pressures on 4:12-Sloped hip roofs of L- and T-shaped low-rise buildings. Journal of Structural Engineering, 144(7).
34. Shao S, Tian Y, Yang Q and Stathopoulos T (2019). Wind-induced cladding and structural loads on lowrise buildings with 4:12-sloped hip roofs. Journal of Wind Engineering and Industrial Aerodynamics, 193, pp. 103948.
35. Stathopoulos T (1984). Design and fabrication of a wind tunnel for building aerodynamics. Journal of Wind Engineering and Industrial Aerodynamics, 16(2–3), pp. 361–376.
36. Stathopoulos T and Alrawashdeh H (2020). Wind loads on buildings: A code of practice perspective. Journal of Wind Engineering and Industrial Aerodynamics, 206, pp. 104338.
37. Stathopoulos T and Baskaran A (1987). Wind Pressures on Flat Roofs with Parapets. Journal of Structural Engineering, 113(11), pp. 2166–2180.
38. Stathopoulos T, Baskaran A and Goh PA (1990). Fullscale measurements of wind pressures on flat roof corners. Journal of Wind Engineering and Industrial Aerodynamics, 36(2), pp.
39. Stathopoulos T and Dumitrescu-Brulotte M (1989). Design recommendations for wind loading on buildings of intermediate height. Canadian Journal of Civil Engineering, 16(6), pp. 910–916.
40. Stathopoulos T, Elsharawy M and Galal K (2013). Wind load combinations including torsion for rectangular medium-rise building. International Journal of High-Rise Buildings, 2(3), pp. 1–11.
41. Stathopoulos T and Luchian HD (1990). Wind pressures on buildings with multi-level roofs. Journal of Wind Engineering and Industrial Aerodynamics, 36, pp. 1299–1308.
42. Stathopoulos T and Luchian HD (1990). Wind pressures on buildings with stepped roofs. Canadian Journal of Civil Engineering, 17(4), pp. 569–577.
43. Stathopoulos T, Marathe R and Wu H (1999). Mean wind pressures on flat roof corners affected by parapets: Field and wind tunnel studies. Engineering Structures, 21(7), pp. 629-638.
44. Stathopoulos T and Mohammadian AR (1986). Wind loads on low buildings with mono-sloped roofs. Journal of Wind Engineering and Industrial Aerodynamics, 23, pp. 81–97.
45. Stathopoulos T and Mohammadian AR (1991). Modelling of wind pressures on monoslope roofs. Engineering Structures, 13(3), pp. 281–292.
46. Stathopoulos T and Saathoff P (1992). Codification of wind pressure coefficients for sawtooth roofs. Journal of Wind Engineering and Industrial Aerodynamics, 43(1–3), pp. 1727-1738.
47. Stathopoulos T and Saathoff P (1994). Codification of wind pressure coefficients for multispan gable roofs. Journal of Structural Engineering, 120(8).
48. Stathopoulos T, Saathoff P and Bedair R (2002b). Wind pressures on parapets of flat roofs. Journal of Architectural Engineering, 8(2).
49. Stathopoulos T, Saathoff P and Du X (2002). Wind loads on parapets. Journal of Wind Engineering and Industrial Aerodynamics, 90(4–5), pp. 503-514.
50. Stathopoulos T, Wang K and Wu H (2001). Wind pressure provisions for gable roofs of intermediate roof slope. Wind and Structures, An International Journal, 4(2), pp. 119-130.
51. Stathopoulos T, Zisis I and Xypnitou E (2014). Local and overall wind pressure and force coefficients for solar panels. Journal of Wind Engineering and Industrial Aerodynamics, 125, pp. 195–206.
52. Surry D and Stathopoulos T (1978). An experimental approach to the economical measurement of spatiallyaveraged wind loads. Journal of Wind Engineering and Industrial Aerodynamics, 2(4), pp. 385-397.
53. Wang K and Stathopoulos T (2007). Exposure model for wind loading of buildings. Journal of Wind Engineering and Industrial Aerodynamics, 95(9–11),pp. 1511-1525.
54. Yu J, Li M, Stathopoulos T, Zhou Q and Yu X (2021). Urban exposure upstream fetch and its influence on the formulation of wind load provisions. Building and Environment, 203, pp. 108072.
55. Yu J, Li M and Stathopoulos T (2019). Strategies for modeling homogeneous isotropic turbulence and investigation of spatially correlated aerodynamic forces on a stationary
>> more<< less