TY - JOUR
T1 - Experimental and Numerical Study of Wind-Induced Vibration in High-Tech Factories
AU - Ju, S. H.
AU - Kuo, H. H.
PY - 2020/6/1
Y1 - 2020/6/1
N2 - In this paper, experiments and finite-element analyses are used to investigate the wind-induced vibration in high-tech factories. The experimental results during the Megi typhoon on September 27, 2016, indicated that wind-induced vibration cannot be ignored in high-tech factories, while horizontal vibration is much larger than the vertical one, and the vibration at the first natural frequency of the building is obviously dominant for the wind-induced vibration. Moreover, a reinforced concrete level can meet the vibration criteria at more severe wind conditions than a steel level is able to. In the finite-element analysis, the TurbSim version 1.06.00 software package is used to generate the time-dependent turbulence wind speed field, and the finite-element results are calibrated with the experimental measurements. The finite-element parametric study then indicates that a reduction in the floor vibration of a high-tech factory is feasible due to the shade of adjacent buildings. However, this reduction is negligible when the height of the shading building is not more than 60% of the factory height. For high-tech factories with long span trusses, increasing the member sizes to reduce wind-induced vibration, including the bracing, wall, and column members, may not be efficient and should be considered conservatively.
AB - In this paper, experiments and finite-element analyses are used to investigate the wind-induced vibration in high-tech factories. The experimental results during the Megi typhoon on September 27, 2016, indicated that wind-induced vibration cannot be ignored in high-tech factories, while horizontal vibration is much larger than the vertical one, and the vibration at the first natural frequency of the building is obviously dominant for the wind-induced vibration. Moreover, a reinforced concrete level can meet the vibration criteria at more severe wind conditions than a steel level is able to. In the finite-element analysis, the TurbSim version 1.06.00 software package is used to generate the time-dependent turbulence wind speed field, and the finite-element results are calibrated with the experimental measurements. The finite-element parametric study then indicates that a reduction in the floor vibration of a high-tech factory is feasible due to the shade of adjacent buildings. However, this reduction is negligible when the height of the shading building is not more than 60% of the factory height. For high-tech factories with long span trusses, increasing the member sizes to reduce wind-induced vibration, including the bracing, wall, and column members, may not be efficient and should be considered conservatively.
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U2 - 10.1061/(ASCE)CF.1943-5509.0001432
DO - 10.1061/(ASCE)CF.1943-5509.0001432
M3 - Article
AN - SCOPUS:85081591829
SN - 0887-3828
VL - 34
JO - Journal of Performance of Constructed Facilities
JF - Journal of Performance of Constructed Facilities
IS - 3
M1 - 04020026
ER -