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Steel Connection Analysis, Based On Shear, Bearing and Tension, Yielding, Steel and Electrodes, Compressive Stress Block, Reinforcement Ratio, Minimum and Maximums, Reinforced Concrete Beam Analysis, Coarse Aggregate Size. This is Architectural Structures assignment. Keywords of assignment are given above.
Typology: Exercises
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Problems: as stated (none from Onouye)
11A) Determine the capacity of this butt splice based on shear, bearing, and tension. The plates are made of A36 steel and the four bolts on each side of the splice are A325-SC with standard round holes (7/16”) at 3 inch spacing. Assume the hole spacing is such that block shear rupture is not a concern. (LRFD steel connection analysis) Partial answers to check with: 76.0 k (shear), 156.6 k (bearing), 129.6 k (yielding), 135.9 k (rupture), so ...
11B) Determine the capacity of the welded connection shown. The weld size is 3/16 in.. Assume the base metal is A36 steel and electrodes are E70XX in each problem. Use L = 4.5”. (LRFD steel connection analysis) Partial answers to check with: 50.625 k (yielding), 58.52 k (shear), so ...
11C) Determine the capacity and adequacy of the framed beam connection shown when the factored beam reaction is 300 k and ½" angles of sufficient length are used. The column and beam are A992 steel. The angles are A36 steel with 3” spacing of holes and 1 ¼” edge distances (see table). The bolts are A490-X. (LRFD steel connection analysis) Partial answers to check with: 529.9 k (shear), 314.2 k (bearing), 606.9 k (bearing), 344 k (angles), so ...
Column W18 x 35 (A992, GR 50)
(14) 78 " A490-X
(7) 78 " A490-X
Beam W24 x 76 (A992, GR 50, Fy = 50 ksi, Fu = 65 ksi) T = 21 in.
11D) For the singly reinforced concrete beam sections described below, determine i) depth of the compressive stress block ii) acceptability of reinforcement ratio to minimum and maximums iii) design moment capacity. (reinforced concrete beam analysis)
11E) A rectangular concrete beam is to be designed using f’ c = 3000 psi, fy = 40 ksi, density of 150 lb/ft^3 , b = 16 in., d = 32 in., and h = 36 in. for a simply supported span of 35 feet. Determine the area of steel required to carry superimposed loads ( not including self weight) of 150 lb/ft dead and 400 lb/ft live. Assume the maximum coarse aggregate size is 1 in.. Check if the steel fits and if the steel reinforcement ratio is within limit. (reinforced concrete beam design)
11F) Design a rectangular beam for a 22-ft simple span if a dead load of 2 k/ft (including an estimated self weight) and a live load of 2.9 k/ft are to be supported. Use f’ c = 4000 psi and fy = 60 ksi, The height of the beam should be between 1.5 to 2 times the width (which should be in even inches). Assume there are #3 U stirrups and a minimum of 1” clearance between bars and between rows (3/4” aggregate). Do not use bars larger than #11’s. (reinforced concrete beam design) Partial answers to check with: Mu = 425.9 k-ft. Your Rn with chosen b & h can range from
stirrups, the total number of bar diameters and spaces (no. of bars – 1) of 1 inch each. (Bars larger than #8’s have custom diameters.) If the number is negative, the section is invalid. If your final reinforcement ratio is bigger than the max, the section is invalid.