![GIVEN DATA Member Details Grade of Steel Gross area of section, Thickness of flange Breadth of flange, Depth of section, Thickness of web A 36 5890 mm 140 mm 403 mm 7 mm Connection Details Member connected to web/two flanges Diameter of bolt, Number of bolts across a section, n Number of bolts in line Pitch of the bolts End Distance Edge distance Distance of centroid from edge two flanges 22 mm 4 75 mm 50 mm 30 mm t 51.31 mm (WT205x23.05) CALCULATIONS For grade of steel A 36 250 Mpa 400 Mpa 22 + 24 mm Yield stress Ultimate stress, Diamter of bolt hole DESIGN STRENGTH Yielding in the gross section Design strength of gross section is obtained as: F,A 0.9 250 x 5890 1325 kN Fracture in the net section Net area A Ao-n (dnt) 5890 4 x 24.000 x 11.200 4815 in2 Length of connection in the direction of loading, 150 in Since the member is connected to Shear lag Factor two flanges Alternative value of U [Case- 7(a)] bf<2/3d... U- 0.850 0.658 Thus, U0.850 (Maximum of Case-2 & Case-7(a))](http://img.homeworklib.com/questions/623fb6d0-a77c-11eb-9216-ab13a7dbaa7b.png?x-oss-process=image/resize,w_560)

steel design Problem 3: A W 410 x 46.1 is connected at its ends with 12.5...
Q3. Determine the LRFD strengths for aW12 x 50 (A36 steel) with two lines of 4-in bolts in its flange (three in a line 4-in on center) as shown in Fig. Q3. Gross section yielding, tensile rupture and blockshear strengths must be investigated. Properties of the beam properties of the channel are as follows: A 14.6 in2, d = 12.2 in, tw 8.08 in, t 0.64 in, I are as follows: The 0.370 in, by 391 in, ly 56.3 in,...
40kN Uniform Load W kN/m X Span L L/2 Figure 1 SPAN L 6 W 11Kn/m Beam is 200 UB 18.2 Use the diagram above and the W and L values assigned to you to: a) Use your shear force diagram to calculate the Maximum longitudinal Shear Stress and where it occ Ccurs. b) Calculate the longitudinal Shear Stress at d/4 from the neutral axis. Check Figures 283 below this table BENDING MOMENT DIAGLAM Kp/m f:40 zm 7.5 KN-M 90...