For the state of stress shown in figure (a=55 degrees), determine (a) The normal and shear...
For the given state of stress, determine the normal and shearing stresses exerted on the oblique face of the shaded triangular element shown. Use a method of analysis based on the equilibrium of that element. Take X = 100 MPa. 60 MPa 45 MPa The normal stress exerted on the oblique face of the shaded triangular element is MPa. The shear stress exerted on the oblique face of the shaded triangular element is MPa.
For a state of pure shear stress acting on a point shown in the figure, which of the following equations represents the corresponding transformation equation of a normal stress (Ox'? (Note: use the equations of stress transformation and principal stresses) Tyx Typy x Туху Тух A) (1 + cos20) B) - 2 sin28 C) Txy sin20 D) Txy cos20 ОА OB с D
For the state of stress at a point shown, determine the stresses obtained by rotating the given x and y planes by 66.3 degrees counter clockwise. Show the stresses on the rotated planes. Verify the first invariant of stresses. What are the shear stresses on these rotated planes? 90 MPa 60 MPa 20 MPa
Knowing that for the state of stress shown below ox = 18 ksi, ay = 20 ksi, and Txy = 9 ksi, determine the angle that the x-axis must be rotated counter-clockwise to be oriented in the direction of the maximum principal stress. Express your answer in degrees to the nearest 0.1 degrees. -0 - X Question 2 1 pts Knowing that for the state of stress shown below Ox=9ksi, o, -21 ksi, and Txy 3 ksi, determine the maximum...
Consider a point in a structural member that is subjected to plane stress. Normal and shear stresses acting on horizontal and vertical planes at the point are shown in Figure 4. Determine the principal stresses and the maximum in-plane shear stress acting at the point. 55 MPa 42 MPa 32 MPa Figure 4
a) The state of stress at a point is shown on the element in Figure Q4(a) Deternine i) The principal stresses (in-plane) and the corresponding principal planes; 1) The maximum in-plane shear stress and the orientation of the corresponding plane as well as the normal stress on that plane. 60 MPa 30 MPa 45 MPa Figure Q4(a)
For a state of pure shear stress acting on a point shown in the figure, which of the following equations represents the corresponding transformation equation of a normal stress (0,")? (Note: use the equations of stress transformation and principal stresses) y Syx Txy o x Txy Тух A) (1 + cos20) sin20 C) Txy sin20 D) Txy cos20 B) ОА OB Ос OD
Part A - Normal Stresses, Shear, and Angles The stress element shown in the figure below is subjected to the indicated stresses of magnitude 0,1 = 35 MPa, oyl = 57 MPa, and Tryl = 41 MPa Oy Txy Determine the principal normal stresses 01 and 02, the maximum in-plane shear stress Tmax,in-plane, and the angles at which they occur relative to the given stress element. Follow the sign convention. Suppose that when the element is oriented at an angle...
Consider a point in a structural member that is subjected to plane stress. Normal and shear stresse acting on horizontal and vertical planes at the point 8.4 MPa are shown in the figure 44.8 MPa a) Draw Mohr's circle for this state of stress b) Determine the principal stresses and the maximum in- plane shear stress acting at the point. Show these stresses in an appropriate sketch. c) 60.5 MPa
9-16 The state of stress at a point is shown on the ele- ment. Determine (a) the principal stresses and (b) the max- imum in-plane shear stress and average normal stress at the point. Specify the orientation of the element in each case. 250 MPa 175 MPa 200 MPa Prob. 9-16 9-16 The state of stress at a point is shown on the ele- ment. Determine (a) the principal stresses and (b) the max- imum in-plane shear stress and average...