3) Determine the tensile design strength. The member is a PL 5/8 x 10 and the...
2) Determine the LRFD design tensile strength for the member and the bearing-type connection. The plates are A36 with Fu=58 ksi, and bolts are A490 7/8 in, threads not excluded from shear planes. Ooo | در انرا ا درا ا در 2 in 3 in PL x 12. 3 in 12 in PL 1 X 12 P/2 € P/2 + PLŐ x 12
3. A C 9x15 is to be used as a tension member. The channel is bolted to a 5/8 in gusset plate with 7/8 inch diameter, A307 bolts. The tension member is AS72 Grade 50 steel and the gusset plate is A36. Follow Figure 3. (a) Check all spacing and edge distance irements; (b) Compute the design strength based on shear and bearing; and (c) Compute the allowable strength based on shear and bearing. 23" 3" 3" С 9x 15...
S- Section FIGURE P3.2-3 APL⅜x6tension member is steel is A36. Assume that A, A, and compute the following. a. The design strength for LRFD. b. The allowable strength for ASD. 32-4 APLx6 tension member is welded to a gusset plate as shown in Figure P3.2-4. The :and compute 3.2-4 ameter bolts, as shown A,A, and compute the FIGURE P3.2-4 ion member shown in Figure P3.2.5 is a PL tax 8 of A36 steel. The mem- ted to a gusset plate...
4- Calculate the allowable tensile load for the butt joint shown. The fasteners are 7/8 in, in diameter A325 high- strength bolts (A325-N, threads in shear plane). The plates are of ASTM A36 steel. (25%) Plates-6"x Plate-8" X
4- Calculate the allowable tensile load for the butt joint shown. The fasteners are 7/8 in, in diameter A325 high- strength bolts (A325-N, threads in shear plane). The plates are of ASTM A36 steel. (25%) Plates-6"x Plate-8" X
Question 1: Three tension members are shown below. Assume the strength of the member controls and not the connecting element. Each member is made from A36 steel. All bolts are spaced at 3.0 inches unless the sketch indicates otherwise. The distance from the centerline of the last bolt to the end of the tension member is 2.0 inches unless the sketch indicates otherwise. The required sketches described below are 20% of the points Include the following: For the area calculations...
5. Using AISC Steel Construction Manual, find the following design strengths of 1-inch Group A bolts on A36 gusset plates, type N, with STD holes, 3" bolt spacing and 2" edge distance: (5 points) a. Shear Strength of Bolts in Single Shear Connections b. Shear Strength of Bolts in Double Shear Connections c. Tensile Strength of Bolts d. Bearing Strength at Bolt Holes for Inner Bolts e. Bearing Strength at Bolt Holes for Edge Bolts
5. Using AISC Steel Construction...
Steel Design
2. (50 pts) Design an A36-steel tension member 16 ft long consisting of two channels, bolted through their webs to a single 1 inch gusset plate, to transmit 75 kips DL and 93 kips LL. The bolts are 7/8 in. Bolt spacing 4 inch and bolt edge distance 3 inch. In addition to checking block shear in the channels, design the thickness of the gusset plate to resist block shear.
(20pts) An MC 9 x 25.4 is.connected with 7/8-inch-diameter A325 bolts as shown below. A36 steel is used. The service loads are 35 kips dead load and 15 kips live load. Determine the adequacy of tensile capacity of the proposed MC shape using the LRFD method. You will need to determine an appropriate shear lag factor. Your solution has. to be complete for all the aspects regarding tension strength analysis and clearly indicate any assumptions you may make in solution....
2. (30 pts) Determine the block shear strength of the tension member shown below. Bolts diameter = 7/8 in, A36 steel is used (Table 2-4 XN, A16 s 58 kse DO 3232 -in. bolts 19 (3) /8" bolts 3" bolt spacing (fy = 36 ksi P. 2-487 (Table 1-7) Ag = 2.50 in ² p. 1-48 - 1.00 in t. 3/8" And = [3.5"-(7/6" + /6")] (3/8") = 10.94 in? Ag. = (7.5") (2/6") - 2.81 in? Anu = [7.5...
ints) The connection below is a slip-critical connection. Calculate the design strength of the n assuming 7/8-in A325 bolts (threads excluded) with a factor for fillers, hf -1.0 Assume A36 steel tes, Class 8 faying surface and standard size holes. Check a. Gross section yielding of plates b. Tensile rupture of plates c. Slip-critical strength of bolts d. Bearing strength of bolts e. Shearing strength of the bolts f. Block Shear (Draw how the block 3 in 3 in o...