Answer


Find the number of unknown variables of Force method and of Displacement method for this frame....
5. In which frame is the horizontal displacement of joint C larger? Assume Er = const. Justify your opinion. 10 pts. 5B I Р P H/2 H/2 L H Н
Use the virtual force method to determine the rotation and
displacement at A. Show the direction of the arrows. EI is
constant. Assume E = 29,000 ksi and I = 180 in4.
Problem #2 Use the virtual force method to determine the rotation and displacement at A. Show the direction of the arrows. El is constant. Assume E = 29,000 ksi and I =180 in. 1.2 kip/ft A с E 8 ft 24 ft ( Skip ft? rad EI in...
Problem 2 Using deflection methods, find the horizontal displacement d of point D on the frame. Consider the connections B and C to be rigid. Q B. с D WA 8
hw help
Srewuss you For the given frame, choose a primary structure of the Force method. Construct the diagrams of mi, m2, and M. (Don't compute the displacements.) Assume a = 12 ft, b = 8 ft, h - 6 ft, P = 10 k, Q - 7 k, EI - const. 30 pt A
Q2: Application of Force Method on Frame Determine reactions at the fixed end support A and roller support C of the frame as shown in Fig 02 8KN/m AR-1250 (10) mmn -9m 3m 20 kN Inc-625 (10) mn 3m
DKI=3
Problem 1: Determine the following vector and matrix expressions for the frame structure load system shown below. The vector of unknown displacem ents D; The joint load vector Q; The fixed-end force vector Qo; and The Stiffness matrix K. 1· 2. 3. 4. The vector equation involving the above quantities based on the displacement method is 1-5 K/ft C. 430 24 ft 3 20 ft 20%t 0 0 TiIT
Problem 1: Determine the following vector and matrix expressions for...
Problem 3: (25%) The steel frame shown in the Figure is subjected to a force P(t) = 15 sin(ot) kips at the beam level. The damping ratio 5 is 5%, E = 3 x 10 ksi, total weight of the beams = 100 kips, all the columns are 12" x 12" in size and this is the case of resonance. Determine: a) Damped and un-damped natural periods of the structure. b) The maximum dynamic horizontal displacement (u.) at the top...
Problem 3 FOR ALL VERSIONS Perform analysis of the frame by Force method. Show the primary structure and all calculations. Construct the final moment diagram. Assume El = const. 00
Find the spring constant for the given data in the static method by plotting Displacement (along y-axis) vs. Added Mass (along x-axis). Recall: the slope of the trend line corresponds to g/k. Copy and paste your graph here. (2 pts) Added Mass (kg) Displacement (m) 0.05 0.11 0.10 0.20 0.15 0.31 0.20 0.43 0.25 0.54 0.30 0.62 0.35 0.78 0.40 0.90 Again, find the spring constant for the same spring using the dynamic method, i.e. by plotting T2 (along y-axis)...
(b) For the structure in Figure 4, use the Force Method to find the axial force in the tie, CD, due to the uniform loading, q-10 kN/m. Neglect axial deformation in the frame, ABC. The product of Young's modulus and 2nd moment of area for the beam, ABC, is EL The tie, CD, has the same Young's modulus and an area of, a = 100 (60%) Page 2 of 7 5 Figure 2 Figure 3 Figure 4