Problem #3: A circular shaft, fixed to the wall, is loaded as indicated in the figure below. Using all three failure criteria (Rankine's theory, Tresca criterion, and Von Mises criterion), determine the load magnitude, R, that causes yielding at point A on the cross-section. Assume the yield strength of the material is 64 ksi. Notes: . . ● Point A is at the mid-depth of the section and on the leftmost fiber (as viewed below). At the fixed base, the shaft will be subjected to a bending moment, a torsional moment, a shear force, and a normal force. Recall for a circular cross-section; 1=d¹ and/=d. Q does not need to be provided, as you should see herein. A 3 ft R 4 in. F T 2 ft 12R X

Elements Of Electromagnetics
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Problem #3: A circular shaft, fixed to the wall, is loaded as indicated in the figure below. Using all three failure criteria (Rankine's theory, Tresca criterion, and Von Mises criterion), determine the load magnitude, R, that causes yielding at point A on the cross-section. Assume the yield strength of the material is 64 ksi. Notes: . . ● Point A is at the mid-depth of the section and on the leftmost fiber (as viewed below). At the fixed base, the shaft will be subjected to a bending moment, a torsional moment, a shear force, and a normal force. Recall for a circular cross-section; 1=d¹ and/=d. Q does not need to be provided, as you should see herein. A 3 ft R 4 in. F T 2 ft 12R X
Problem #3: A circular shaft, fixed to the wall, is loaded as indicated in the figure below. Using all three failure
criteria (Rankine's theory, Tresca criterion, and Von Mises criterion), determine the load magnitude, R, that causes
yielding at point A on the cross-section. Assume the yield strength of the material is 64 ksi.
Notes:
.
.
●
Point A is at the mid-depth of the section and on the leftmost fiber (as viewed below).
At the fixed base, the shaft will be subjected to a bending moment, a torsional moment, a shear force, and
a normal force.
Recall for a circular cross-section; 1=d¹ and/=d. Q does not need to be provided, as you should
see herein.
A
3 ft
R
4 in. F
T
2 ft
12R
X
Transcribed Image Text:Problem #3: A circular shaft, fixed to the wall, is loaded as indicated in the figure below. Using all three failure criteria (Rankine's theory, Tresca criterion, and Von Mises criterion), determine the load magnitude, R, that causes yielding at point A on the cross-section. Assume the yield strength of the material is 64 ksi. Notes: . . ● Point A is at the mid-depth of the section and on the leftmost fiber (as viewed below). At the fixed base, the shaft will be subjected to a bending moment, a torsional moment, a shear force, and a normal force. Recall for a circular cross-section; 1=d¹ and/=d. Q does not need to be provided, as you should see herein. A 3 ft R 4 in. F T 2 ft 12R X
Expert Solution
Step 1

The Rankine's Theory

Rankine's theory is a classical theory in engineering mechanics that is used to analyze the stress and deformation of materials under load. It is based on the assumption that materials are homogeneous and elastic, and that stresses are proportional to strains. The theory is often used to analyze the behavior of structures such as beams and columns under load, and to determine the maximum load they can sustain before failure.

The yield strength of the material, σy=64 ksi.

 

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