Simulation method of non-stiffened steel plate shear wall with circular arc cut
A technology of steel plate shear wall and simulation method, applied in geometric CAD, design optimization/simulation, special data processing application, etc., can solve the problem of reducing the lateral bearing capacity of steel plate shear wall and the vertical load of unstiffened steel plate shear wall There is no improvement, no verification and other problems, to achieve the effect of scientific and reasonable parameter selection range, shorten the construction period, and avoid excessive arc incision
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Embodiment 1
[0037] Such asfigure 1 As shown, the main structure in this embodiment includes a top frame beam 1, a bottom frame beam 2, a left frame column 3, a right frame column 4, and an embedded steel plate 5, and the embedded steel plate 5 is connected to the top frame beam 1 and the bottom frame beam 2. Connect, connect with left and right frame column (3,4). The horizontal side of the embedded steel plate 5 includes the upper side and the lower side. In this embodiment, the upper side of the embedded steel plate 5 is provided with an upper arc-shaped incision 6, and the arc length L of the upper arc-shaped incision 6 is c is the horizontal direction, arc height H c for vertical.
[0038] During fabrication, first determine the height and span of the embedded steel plate according to the height of the frame columns (3, 4) and the span of the frame beams (1, 2) of the proposed building; To meet the requirements of bearing capacity and energy dissipation capacity, the thickness and m...
Embodiment 2
[0041] This embodiment has been improved on the basis of Embodiment 1, such as figure 2 As shown, the difference is that in this embodiment, the lower side of the embedded steel plate 5 is also provided with a lower arc-shaped cutout 7, and the two arc-shaped cutouts (6, 7) correspond to the upper and lower sides, and are all located on the embedded steel plate. 5. At the middle position of the horizontal side, the lower arc-shaped incision 7 has the same size and parameter settings as the upper arc-shaped incision 6. The arc length is L c is the horizontal direction, the arc height H c for vertical.
Embodiment 2
[0042] In conjunction with embodiment two, this method is described as follows:
[0043] (1) The top frame beam 1 and the bottom frame beam 2 use the I-shaped section of 600×300×30×40mm, the left frame column 3 and the right frame column 4 use the box-shaped section of 400×400×50mm, and the embedded steel plate 5 The span L e and height are 3000mm, thickness t w The height-to-thickness ratio λ is 300. The embedded steel plate 5 is made of Q235 steel with a low yield point. The top frame beam 1, the bottom frame beam 2, the left frame column 3, and the right frame column 4 are all Q345 steel. The arc length L of 5 c and arc height H c is a parameter variable, and the parameters of the non-stiffened steel plate shear wall specimen are shown in Table 1, in which SPSW is a conventional non-stiffened steel plate shear wall specimen, and L1-1~L1-4, L2-1~L2-4 are two groups of Arc length L c is a parameter variable of non-stiffened steel plate shear wall specimens, H3-1~H3-4, H4...
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