Yielding vs buckling comparison

In summary, yielding and buckling are two different failure modes of materials under stress. Yielding occurs when a material permanently deforms, while buckling is the sudden failure of a material due to compressive stress. Both can be dangerous, but buckling is generally considered more dangerous as it can occur without warning. The geometry of a structure can greatly affect its susceptibility to these failure modes, with long, slender structures being more prone to buckling and shorter, thicker structures being more likely to yield. The material properties, applied load, and geometry of a structure are the main factors that determine whether it will yield or buckle under stress. To prevent or mitigate these failures, engineers can carefully consider material selection, structural design, and loading conditions.
  • #1
fonseh
529
2

Homework Statement


http://www.continuummechanics.org/eccentriccolumnbuckling.ht

In here , i was told that for the eccentrically loaded column , the column will fail due to before it buckles .
How is that possible ?

Homework Equations

The Attempt at a Solution


The column will start to buckle first before it break due to yielding , right ?
 
Last edited by a moderator:
Physics news on Phys.org
  • #2
The link you gave doesn't work.
 

FAQ: Yielding vs buckling comparison

1.

What is the difference between yielding and buckling?

Yielding is the point at which a material permanently deforms under stress, while buckling is the sudden failure of a material due to compressive stress. Yielding occurs in ductile materials, while buckling occurs in brittle materials.

2.

Which is more dangerous, yielding or buckling?

Both yielding and buckling can be dangerous, but buckling is generally considered more dangerous as it can occur suddenly and without warning. Yielding, on the other hand, typically occurs gradually and can give warning signs before failure.

3.

How does the geometry of a structure affect its susceptibility to yielding and buckling?

The geometry of a structure can greatly affect its susceptibility to yielding and buckling. For example, long, slender structures are more prone to buckling, while shorter, thicker structures are more likely to yield. Additionally, the shape and size of structural components can also impact their susceptibility to these failure modes.

4.

What factors determine whether a structure will yield or buckle under stress?

The main factors that determine whether a structure will yield or buckle under stress are the material properties of the structure, the applied load, and the geometry of the structure. A material's yield strength and modulus of elasticity, along with the magnitude and direction of the applied load, will determine whether it yields or buckles under stress.

5.

How can engineers prevent or mitigate yielding and buckling in structures?

Engineers can prevent or mitigate yielding and buckling in structures by carefully considering the material selection, structural design, and loading conditions. Using materials with high yield strength and modulus of elasticity, avoiding slender and unstable geometries, and ensuring that the applied loads do not exceed the structural capacity can help prevent or mitigate yielding and buckling.

Similar threads

Back
Top