Problem 04.077- Determine the deflection of an angled bar using Castigliano's theorem Using Castigliano's theorem, determine...
. (20 points) Using Castigliano's theorem, determine the deflection of point B in the direction of the force F for the steel bar shown 207G po 168mm 12-mm dia. 168 mm o.8F 2. (20 points) The cantilevered handle in the figure is made from mild steel that has been welded at the Use Castigliano's theorem and F-=-600 N, Fu-800 N, and F,--400 N. . (20 points) Using Castigliano's theorem, determine the deflection of point B in the direction of the...
Solve Using Castigliano's Theorem Considering that Castigloiano's is applicable to angular deflection as well. Determine the deflection at the load P for the three-sided bracket shown in the Figure below. The bracket has the same material and cross section throughout. With solid steel rods of 56 mm diameter, using E = 200 GPa, G= 77 GPa, a = 300 mm, b = 800 mm, and P=5.5 kN. Р 3 , - Иys 2* да ф = 0 = 2 (....
PROBLEM #1: (50 points) Using Castigliano's method, determine the vertical deflection of the free end, point C, due to the vertical force F applied at point B of the step cantilever shaft shown in the figure. The second area moments for sections AB and BC are 1 and 21, respectively. 1/2 1/2
60 in 150 lbf 5 lbf/in 3. The cantilever shown in the figure consists of two structural-steel channels with a weight of 0.833 lbf/in. Both distributed load of 5 lbf/in and a point load of 150 lbf are applied to the beam as shown above. Using Castigliano's theorem find the deflection at A and compare to the deflection calculated using the superposition method. Include weight of the channels. (l3.70 in4) R A simply supported beam has a concentrated moment MA...
The figure shows a rectangular member OB, made from ¼-in-thick aluminum plate, pinned to the ground at one end and supported by a 1/3-in-diameter round steel rod with hooks formed on the ends. A load of 80 lbf is applied as shown. Use Castigliano's Theorem to determine the vertical deflection at point C, midway between points A and B. Aluminum: E 10 Mpsi, Steel: E 30 Mpsi. L-in dia. lbf 12 in L-in thick 2 in -A 6 in 12...
PROBLEM #2 (35 points) Using Castigliano's method, determine the vertical deflection at the middle of the simply supported beam (point E) shown in the figure due to the vertical load P applied at point E. The second area moments for sections AC, CD and DB are 21, I and 21, respectively. Ar 21 - 21B I 1/4 1 1/4 1 1/4 1 1/4
The figure shows a rectangular member OB, made from 1⁄4-in-thick aluminum plate, pinned to the ground at one end and supported by a 1/3-in-diameter round steel rod with hooks formed on the ends. A load of 80 lbf is applied as shown. Use Castigliano’s Theorem to determine the vertical deflection at point C, midway between points A and B. Aluminum: E = 10 Mpsi, Steel: E = 30 Mpsi. v The figure shows a rectangular member OB, made from ¼-in-thick...
95 Section A-A 4 in 4-95A A steel piston ring has a mean diameter of 70 mm, a radial height h = 4.5 mm, and steel piston ring has a thickness b = 3 mm. The ring is assembled using an expansion tool that separates the split ends a distance 8 by applying a force F as shown. Use Castigliano's theorem and determine the force F needed to expand the split ends a distance 8 = 1 mm. 4-96 For...
Q1. (45p) Use Castigliano's Theorem to find the vertical deflection at point B for the given member under the load of P. The member is fixed at A and free at the other end. 450 Divide the member in two sections AB and BC. Use the figures below if necessary BF a=45° Use the values below to compare the contribution of each component to total deflection. R = 75 mm, h = 30 mm, b = 15 mm. P =...
The curved steel bar shown in the figure has a rectangular cross section with a radial height h= 8 mm and a thickness b= 3 mm. The radius of the centroid is R= 40 mm. A force P= 15 N is applied as shown here. Find the vertical deflection at B. Use Castigliano's method for a curved flexural member. Since Rih< 10, do not neglect any of the terms. The vertical deflection at Bis D m m.