A crank arm consists of a solid segment of length b x and diameter rf, a segment of length b l t and a segment of length b y as shown in the figure. Two loads P act as shown: one parallel to — vand another parallel to — y. Each load P equals 1.2 kN. The crankshaft dimensions are A] = 75 mm, fr> = 125 mm, and b 3 = 35 mm. The diameter of the upper shaft isd = 22 mm, (a) Determine the maximum tensile, compressive, and shear stresses at point A, which is located on the surface of the shaft at the z axis. (b) Determine the maximum tensile, compressive, and shear stresses at point B, which is located on the surface of the shaft at the y axis
A crank arm consists of a solid segment of length b x and diameter rf, a segment of length b l t and a segment of length b y as shown in the figure. Two loads P act as shown: one parallel to — vand another parallel to — y. Each load P equals 1.2 kN. The crankshaft dimensions are A] = 75 mm, fr> = 125 mm, and b 3 = 35 mm. The diameter of the upper shaft isd = 22 mm, (a) Determine the maximum tensile, compressive, and shear stresses at point A, which is located on the surface of the shaft at the z axis. (b) Determine the maximum tensile, compressive, and shear stresses at point B, which is located on the surface of the shaft at the y axis
A crank arm consists of a solid segment of length bxand diameter rf, a segment of length bltand a segment of length byas shown in the figure. Two loads P act as shown: one parallel to — vand another parallel to —y. Each load P equals 1.2 kN. The crankshaft dimensions are A] = 75 mm, fr> = 125 mm, and b3= 35 mm. The diameter of the upper shaft isd = 22 mm,
(a) Determine the maximum tensile, compressive, and shear stresses at point A, which is located on the surface of the shaft at the z axis.
(b) Determine the maximum tensile, compressive, and shear stresses at point B, which is located on the surface of the shaft at the y axis
Prob. # 1] Figure below shows a crank loaded by a force F = 300 lb that causes twisting and
bending of a 3/4-inch-diameter shaft fixed to a support at the origin of the reference system. In
actuality, the support may be an inertia, but for the purposes of a stress analysis consider this
as a statics problem.
a) Draw separate free-body diagrams of the shaft AB and the arm BC, and compute the
values of all forces, moments, and torques. Label the directions of the coordinate axes
on these diagrams.
b) Compute the torsional stress and the bending stress in the arm BC and indicate where
these act.
c) Locate a stress element on the top surface of the shaft at A, and calculate all the stress
components that act upon this element.
d) Determine the maximum and minimum principal stresses at point A, and the angle of
inclination of the planes on which the principal stresses act.
e) Determine maximum shear stress at point A and the angle of inclination of the element
on which the maximum shear…
The figure attached shows a crank loaded by a force F=300 lbf that causes twisting and bending of 3/4 -in-diameter shaft fixed to a support at the origin of reference system.
Calculate the following:
The internal forces at A, B, and C. Refer to the FBD figure and table provided below. All units shall be in lbf-in for moments and torques, lbf for forces.
Determine the maximum normal and shear stress at A. DRAW THE STRESS ELEMENT/S AND SHOW APPROPRIATE FORCES. Units shall be in ksi.
Solve it correctly please. I will rate accordingly with 4votes.
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