They are both correct, the Profile view shows the shear stress at the bottom, constant across the width t, the other views show the varying bending stresses , not shear stresses, but if you look carefully in the 3D view you will find the constant longitudinal shear stress at the bottom of the plane ( [itex]\tau[/itex])fonseh said:
what do you mean by the other view here ? the figure 7-4 (b) in the first photo ?PhanthomJay said:
shear stress at the bottom plane ?PhanthomJay said:
so , in figure 7.4 b , the figure shown is the bending stress across the vertical length of beam ?PhanthomJay said:
Yes, My/I bending stresses.fonseh said:
Shear stress is a type of mechanical stress that occurs when two surfaces slide against each other in opposite directions. It is caused by forces applied parallel to the surface, rather than perpendicular to it.
Shear stress is typically measured in units of force per unit area, such as pounds per square inch (psi) or newtons per square meter (N/m2). It can also be measured using specialized equipment, such as a shear stress sensor or a rheometer.
Shear stress is caused by external forces acting on a material, such as friction or tension. It can also be caused by the internal forces of a material, such as when a solid material is deformed or when a fluid is flowing over a surface.
Shear stress can have a variety of effects on different materials. In some cases, it can cause materials to deform, break, or fail. In other cases, it can be beneficial, such as in the manufacturing of certain products or in the mechanics of fluid flow.
Shear stress and shear rate are closely related, as shear rate is a measure of the velocity at which shear stress is applied. In general, as the shear rate increases, so does the shear stress. However, the relationship between shear stress and shear rate can vary depending on the type of material and the conditions under which it is being tested.
