Explore: Effect Of Strains And Stresses On

engineering and materials science, a stress–strain curve for a material gives the relationship between the applied pressure, known as stress and amount of deformation

shape of an infinitesimal cube of material relative to a reference configuration. Mechanical strains are caused by mechanical stress, see stress-strain curve

Stress–strain analysis (or stress analysis) is an engineering discipline that uses many methods to determine the stresses and strains in materials and

position after unloading, which leaves residual strains in the lattice. These strains interact with stresses applied in the opposite direction which affect

be some viscous stress, opposing that change. Such stresses can be either shear or normal in nature. Molecular origin of shear stresses in fluids is given

under stress, yet regain their intended shape once the metal is unloaded again. The very large apparently elastic strains are due to the stress-induced

The Mullins effect is a particular aspect of the mechanical response in filled rubbers, in which the stress–strain curve depends on the maximum loading

Specifically, the strain fields of dislocations obey similar laws of attraction and repulsion; in order to reduce overall strain, compressive strains are attracted

evaluation of the different stresses in people's lives is the Holmes and Rahe stress scale. Physiologists define stress as how the body reacts to a stressor -

material is directly related to the state of stresses at that point. Information such as maximum shear stress and its orientation are available by analyzing