Fig. 13.1 Comparison of short-time tensile strength and tensile strength/density ratio for titanium alloys, three classes of steel, and 2024-T86 aluminum alloy. Data are not included for annealed alloys with less than 10% elongation or heat-treated alloys with less than 5% elongation. More

Fig. 8.6 Tensile strength and formability during hot forming. UTS, ultimate tensile strength. Source: Ref 8.6 More

Fig. 8.51 Ultimate tensile strength (UTS), yield strength (YS), and elongation of Ti-6Al-4V alloy produced using various additive manufacturing processes. DMD, direct-metal deposition; HIP, hot isostatic pressing; HT, heat treatment; LENS, laser-engineered net shaping ( Ref 8.16 ); DMLS More

Fig. 1 Effect of carbon content on steel strength. UTS, ultimate tensile strength; YS, yield strength. Source: Ref 1 More

Fig. 2.36 Strength across fusion weld joint. Ultimate tensile strength values are estimated from hardness readings. Source: Ref 2.26 More

Fig. 11.1 Effect of carbon content on steel strength. UTS, ultimate tensile strength; YS, yield strength More

Fig. 4 Notch tensile strength of high-strength steel plotted against testing temperature for three strain rates (crosshead speeds, ε ˙ ). Source: Ref 15 More

Fig. 15.18 Changes in yield strength (a) and tensile strength (b) as a function of time at temperatures of 350 to 500 °C (660 to 930 °F). The as drawn strengths correspond to the 0 heating time, and the galvanized strengths are given by the horizontal dashed line. Source: Ref 15.50 More

Fig. 32 Relationships between the fatigue strength and tensile strength of some wrought aluminum alloys. Source: Ref 11 More

Fig. 14.3 Tensile strength (UTS), yield strength, and elongation as a function of temperature for extruded Lockalloy LX62. Source: London 1979 More

Fig. 6 Effect of material tensile strength or the fatigue strength of welded and unwelded specimens More

Fig. 7.1. Effect of room-temperature tensile strength on 100,000-h rupture strength of quenched-and-tempered and normalized-and-tempered 2¼Cr-1Mo steel ( Ref 12 ). More

Fig. 20-4 Yield strength (0.2% offset) and tensile strength at room temperature as a function of ferrite content for CF-8 and CF-8M alloys. (Adapted from Beck et al.) More

Fig. 20-7 Effect of nitrogen on the tensile strength, yield strength, and elastic modulus in constant ferrite content CF-8 steels More

Fig. 8-47 (Part 1) Factors affecting (a) the tensile strength and (b) the yield strength of structural steels with a primary ferrite-pearlite microstructure. (From T. Gladman, D. Dulieu, and I.D. Mclvor, in MicroAlloying 75 , p 32, Union Carbide Corporation, New York (1977), Ref 24 ) More

Fig. 8-47 (Part 2) Factors affecting (a) the tensile strength and (b) the yield strength of structural steels with a primary ferrite-pearlite microstructure. (From T. Gladman, D. Dulieu, and I.D. Mclvor, in MicroAlloying 75 , p 32, Union Carbide Corporation, New York (1977), Ref 24 ) More

Fig. 9-26 Relation between yield strength and the tensile strength for steels. (From same source as Fig. 9-25 ) More

Fig. 9-27 Relation between the fatigue strength and the tensile strength for several steels. The straight lines have the slope shown. (Adapted from a compilation of T.J. Dola and C.S. Yen, Proc. ASTM , Vol 48, p 664 (1948), Ref 26 ) More

Fig. A.33 Representation of relative tensile strength and ductility of ausformed steels (highly deformed) compared with the same steels heat treated conventionally More

Fig. 14.3 Room-temperature tensile strength vs. exposure times at 1038 °C (1900 °F) in air for Hastelloy X nickel-base solid-solution and carbide-strengthened superalloy More