Search Results for stress-strain curves

Fig. 7 Stress-strain curves (engineering stress vs. engineering strain) of a low-carbon steel at various temperatures below room temperature at a moderate strain rate. Source: Ref 50 More

Fig. 14 (a–c) Engineering stress-strain curves and (d–f) true-stress/true-strain curves of various aluminum alloys (AA2219-T851, AA8090-T8771, WL049-T851) developed for cryogenic applications tested at 295, 77, and 4 K. Source: Ref 23 More

Fig. 12 Tensile stress-strain curves for pearlite gray iron casting. Total strain is composed of plastic and elastic deformation components. Source: Ref 17 More

Fig. 35 Calculated stress-strain curves for alloy 1 at various strain rates, based on parameters listed in Table 4 More

Fig. 5 Stress-strain curves at various constant strain rates for (a) Ti-6Al-4V at 927 °C (1701 °F) and (b) 7475 aluminum alloy at 516 °C (961 °F). Initial grain size: approximately 10 to 14 μm (395 to 550 μin.) More

Fig. 35 Calculated stress-strain curves for alloy 1 at various strain rates, based on parameters listed in Table 4 More

Fig. 25 Comparison of the engineering stress-strain curves for non-strain-hardening samples without or with a 1 or 2% taper predicted using the direct-equilibrium approach. Source: Ref 29 More

Fig. 55 Stress-strain curves for Armco iron. Strain-rate dependence of the flow stress at 700 °C (1290 °F), or 0.54× the absolute melting point, is evident. Data are from compression tests; torsion results exhibit similar behavior. Source: Ref 125 More

Fig. 48 Effect of strain rate on interlaminar shear stress strain curves for cross-ply carbon-fiber reinforced plastic More

Fig. 31 Stress-strain curves for tests conducted at “normal” and “zero” strain rates More

Fig. 34 Stress-strain curves showing effect of test strain rate More

Fig. 7 Tensile stress-strain curves for pearlitic gray iron casting. Total strain is composed of plastic and elastic deformation components. Source: Ref 15 More

Fig. 8 Tensile stress-strain curves indicating portions of total strain (TS) and recoverable strain (RS) of gray iron with type A graphite. UTS, ultimate tensile strength. Source: Ref 16 More

Fig. 8 Strain-controlled fatigue tests. Cyclic stress-strain curves for metal-matrix composite with alumina contents from 0 to 15%. AS, as-sintered; HT, heat treated, T6. Source: Ref 71 More

Fig. 3 (a) Stress-strain curves of spheroidized SAE 52100 (strain rate: 40 × 10 −4 1/s). (b) Plastic deformation by creep at 940 °C (1725 °F) of SAE 5120 steel. Source: Ref 13 More

Fig. 11 Tensile engineering stress-strain curves at different temperatures More

Fig. 3 Typical stress-strain curves at different temperatures relative to the transformation, showing (a) Austenite. (b) Martensite. (c) Pseudoelastic behavior More

Fig. 3 Stress-strain curves for the HSLA sheet steels SAE 50X and SAE 80X (with yield strengths of 340 and 550 MPa, or 50 and 80 ksi, respectively) and a dual-phase steel (with a yield strength of 550 MPa, or 80 ksi). Source: Ref 4 More

Fig. 9 A comparison of stress-strain curves in tension and compression for a class 20 and a class 40 gray iron. Source: Ref 6 More

Fig. 10 Typical stress-strain curves for three classes of gray iron in tension More