


Problem 4. The truss shown below has A2 = 6 in?, A3= A1 = 212 A2,...
Problem # 2 For the plane truss shown below determine the horizontal displacement at joint 3. Assume A 0.4 in and E 29,000 ksi, 10 kip (2) 5 kip (3) 12 ft (1) (5) 1 (4) ttr 9 ft + + LF 8F L, in member F (1) (2) (3) (4) (5) "in
Problem # 2 For the plane truss shown below determine the horizontal displacement at joint 3. Assume A 0.4 in and E 29,000 ksi, 10 kip (2)...
Problem 4 (30%) Determine the internal forces of every member of the truss in the figure. Consider that member BE undergoes a temperature increase of 60°F and member BD is 0.75" too short. For all truss members assume E = 29,000 ksi, A = 5 in, and a=6.5-106/°F 15 ft 15 ft AT=+60°F) 200 kip 20 ft 204 20 ft 20 #
Determine the horizontal deflection at joint E of the truss
shown below by (a) Virtual workmethod (b) Castigliano’s second
theorem
Problem 1. Determine the horizontal deflection at joint E of the truss shown below by a) Virtual work method [13 pts] b) Castigliano's second theorem (13 pts] 6k 6k 6k bo 4k C E 10 ft B |-54t-5-5f-+5ft- EA = constant E = 29,000 ksi A = 6 in.2
5. (20 points) The truss shown below supports horizontal forces of 6 kips at Joint G, 8 kips at Joint E, and 4 kips at Joint C. All truss members are made of steel (E 29,000 ksi). Each of the diagonal members (Members AD, DE, and EH) has a cross-sectional area of 1.2 in2. Each of the vertical members (Members AC, CE, EG, BD, DF and FH) has a cross-sectional area of 2.4 in Each of the horizontal members (Members...
Problem 1 [Required]: For the truss shown below (A and D are pinned supports) and EA is constant a) Determine the degree of indeterminacy for this truss b) Calculate the reaction forces at A and D c) Verify your solution using SAP2000. Provide a print out of. i The axial force diagram i) The deflected shape iii) 3-3 Moment diagram iii) Table of joint reactions (after running analysis Display-) Show Tables-) click joint output, element output and structure output >...
Problem 2: For the truss shown, compute all member forces using the method of consistent deformations by taking the force in member M6 (between joints 1 and 4) as redundant. Given: E-29,000 ksi and A-2.0 in2 A-2.0 in for all members. 20 kips 3 4. M4 M5 M6 10 ft uo M1 2 10 ft
Problem #2 again the two-bar truss in the figure below, again subject to the concentrated load F. However, for this problem, the bars are not necessarily the same size A.A2 and θ. #0," The dimension L s still (a) Analyze the model and calculate the bar forces and stresses in terms of FA,A2, θ,and θ2. (b) Calculate horizontal and vertical displacements of the load point, u, and uy respectively (use virtual work). They should be in terms of F, A,...
For the truss shown in the below figure, determine the stifness
matrix for each truss element, the stiffness matrix for entire
truss, the displacements at nodes 1 through 4, and the force in
elements 1 through 5. Also, determine the force in each element.
Let A = 3 in2, E = 30 x 106
psi for all elements.
8 kips 8 kips 10 ft. 3 4 2 トー-10ft.-*-10 ft.
Problem 1 Analyze the truss structure (statically determinate) shown below. The diameter of the circular truss members is 4 cm. The material used has an elastic modulus E-160GPa 1. Calculate the forces in each truss member. 2. Calculate the horizontal and vertical displacements 1 KN of the truss nodes B and C Calculate the margin of safety. Note: Tension members can fail by stress failure and compression members can fail by stress failure or buckling. 3. 1.732 m 2 KN...
Problem 1 Analyze the truss structure (statically determinate) shown below. The diameter of the circular truss members is 4 cm. The material used has an elastic modulus E-160GPa 1. Calculate the forces in each truss member. 2. Calculate the horizontal and vertical displacements 1 KN of the truss nodes B and C Calculate the margin of safety. Note: Tension members can fail by stress failure and compression members can fail by stress failure or buckling. 3. 1.732 m 2 KN...