No, h is the length, t is the width and F is the face. X is a separate parameter that deals with the tooth.FEAnalyst said:
Right, I didn’t look closely at the image. What is the source of this figure ? I haven’t seen this parameter being used in literature. Standard derivations with just the cantilever length seem more reasonable.dsaun777 said:
Agreed.FEAnalyst said:
Lewis bending stress is a type of stress that occurs in a material when it is subjected to a bending force. This stress is caused by the tensile and compressive forces that act on the material as it bends.
Lewis bending stress is calculated using the Lewis factor, which is a dimensionless number that takes into account the geometry and material properties of the bending object. The formula for Lewis bending stress is σ = Wc / (2bh), where Wc is the bending force, b is the width of the material, and h is the height of the material.
The Lewis factor, represented by x, depends on the geometry of the material and the type of loading it is subjected to. It takes into account the shape, size, and orientation of the material, as well as the location of the bending force.
Lewis bending stress can cause a material to bend or deform, which can lead to failure if the stress exceeds the material's yield strength. It is important to consider Lewis bending stress when designing structures or machines to ensure that the material can withstand the applied forces.
The Lewis factor can be affected by various factors such as the type of material, the shape and size of the material, the location and magnitude of the bending force, and the type of loading (e.g. static or dynamic). It is important to carefully consider these factors when calculating the Lewis bending stress to ensure accurate results.