Problem 4 For the shaft below, (a) Calculate the normal and shear stresses at elements A...
The solid shaft is sujected to a torque and vertical force as shown. Calculate the stresses acting at point A and draw Mohr's circle. Then, determine: (a) the principal stresses, (b) the maximum in-plane shear stress and average normal stress. 450 mm r=25 mm Specify the orientation and sketch the element in each case. 245 N-m HintForcirculararea: Solution: 1x=1,-, J=2. 800 N
1-Determine the stresses at points K and H for the following bar consider shear stresses as well, and second by using Mohr's circle determine principal stresses and maximum shear stress at point H. Radius of the bar is 0.2m b 60 mm a-50 mm Pl 15 kN
3. The propeller shaft of the tugboat is subjected to the compressive force and torque shown. The shaft has an inner diameter of 125 mm and an outer diameter of 175 mm. (20 pts) 0410 KN 2 kNm Determine the following at point A located on the outer surface: avg. TMIP, 8s Principal stresses and Op c Draw Mohr's circle d Draw principal stress and maximum in plane shear stress elements
please help me solve this whole mechanical design problem thanks Q3. (30 points) For the state of plane stress shown, Stresses, σ. σ2 (b) the orientation of the principal stresses, s, (c) the maximum in plane shearing stress, Tmar and (d) its orientation, p. (e) the normal stress at the plane of maximum shear stress, (1) sketch of the rotated plane element for the principal stresses and the rotated plane element for maximum shear stress similar to figure 1, below...
4. (a) Find the normal and shear stresses on the plane indicated on the element. (6) Sketch Mohr's circle. (b) Determine the principal planes and the principal stresses using Mohr's circle approach. Sketch the results. (25 points) .80 M Pa 120 MPa •40 MPa
2) Two forces P- 18 kN and F 15 kN are applied to the shaft with a diameter of D - 40 mm, as shown. A torque T= 750 N·m is also applied on the free end of the shaft. Determine the location and magnitudes of maximum normal and shear stresses developed in the shaft. For full credit, show your work (40 points). T IP 2) Two forces P- 18 kN and F 15 kN are applied to the shaft...
Problem 2: A circular shaft transmits power as shown with pulley loads. The shaft carries a torque, bending, shear and axial loads. Draw LVM diagram to find Mmax and Vmax. Show all loads (moments and forces) on the circular x-section of the shaft below. Use double arrows for moments. Compute shear and normal stresses and show them on the same section. Create stress elements for points A and B of the section. Combine the stresses and compute Tmax (Tresca) and...
Problem #1 For the simply supported beam given below. E-200 GPa and u-o3. 18 kN 24 kN 2.4 m 4.0 m 1.8 m 150 mm 100 mm E.N.A 250 mm 200 mm Draw the shear diagram and the moment diagram For the location halfway between the right support and the 24 kN concentrated load, draw Mohr's circle for the stress states at points "a" "b", and "c" on the same axes a. b. c. For the location at midspan, draw...
Problem #4: The frame supports the triangular distributed load shown Use Mohr's circle to determine the normal and shear stresses at point E that act perpendicular and parallel, respectively, to the grains. The grains at this point make an angle of 45° with the horizontal as shown. Point C is the pin support. 900 N/m 35 75 mmi 200 mm 2.4 m 0.6 m 100 mm 3 m 45° 50 mm 30 mm 1.5 m 100 mm Problem #4: The...
Problem 2: A circular shaft transmits power as shown with pulley loads. The shaft carries a torque, bending, shear and axial loads. Draw LVM diagram to find Mmax and Vmax. Show all loads (moments and forces) on the circular x-section of the shaft below. Use double arrows for moments. Compute shear and normal stresses and show them on the same section. Create stress elements for points A and B of the section. Combine the stresses and compute Cuau (Tresca) and...