Fig. 2 Elastic stress distribution: pure torsion. (a) No stress concentration. *All stress components—tension, shear, and compression—have equal magnitude. (b) Transverse hole stress concentration. **Tension and compression stress components increase more than shear stress at a torsional More

Fig. 2 Effected of stress raisers on stress concentration and distribution of stress at several changes of form in components. (a) to (c) Progressive increases in stress with decreasing fillet radii. (d) to (f) Relative magnitude and distribution of stress resulting from uniform loading. (g More

Fig. 12.15 Stress-concentration effect around a hole. Source: Ref 2 More

Fig. 12.17 Stress-concentration factors, K , for three geometries. Source: Ref 8 More

Fig. 17-5 Failure of die by cracking caused by the stress-concentration effect of deep stamp marks More

Fig. 6 Stress concentration adjacent to a hole in a composite laminate subjected to uniaxial loading More

Fig. 4.23 Role of fillets in reducing stress concentration at the changes in section between abutting components More

Fig. 8 Geometry parameters that affect weld toe stress concentration r , weld toe root radius; θ, weld angle; L , toe-to-toe weld length More

Fig. 2 Examples of stress concentration problems and solutions. Top, courtesy of Battle Memorial Institute; bottom, courtesy of McQuaid. Source: Ref 1 More

Fig. 15 Stress-concentration effect around a hole. Source: Ref 3 More

Fig. 17 Stress-concentration factors for three geometries. Source: Ref 9 More

Fig. 4 Stress concentration factor ( K t ) versus bolt diameter for bolts with standard metric threads. Source: Ref 6 More

Fig. 16 Geometry parameters that affect weld toe stress concentration. r , weld toe root radius; θ, weld angle; L , toe-to-toe weld length. Source: Ref 16 More

Fig. 9.10 Stress concentration and a plastic zone More

Fig. 4.22 Role of fillets in reducing stress concentration at the changes in section between abutting components More

Fig. 4.37 Butt joint loaded axially in tension. (a) A stress concentration exists at the periphery of the joint due to a difference in the Poisson’s ratios of the filler and of the components. (b) Stress distribution in the axial center of the joint. Deformation of joint surfaces More

Fig. 11.9 Fatigue strength as a function of theoretical stress concentration factor for an aluminum-magnesium alloy in several grain sizes. Source: Ref 11.14 More

Fig. 11.38 Methods of reducing the stress concentration at the ends of discontinuous longitudinal butt welds. (a) End of weld radiused. (b) Drilled hole at weld end. Source: Ref 11.42 More

Fig. 8.1 Stress concentration caused by abrupt change in cross-sectional area More

Fig. 17.5 Stress concentration reduction in composite laminates. Source: Ref 3 More