Fig. 2 Systems for gripping tensile specimens. For round specimens, these include threaded grips (a), serrated wedges (b), and, for butt end specimens, split collars constrained by a solid collar (c). Sheet specimens may be gripped with pins (d) or serrated wedges (e). More

Fig. 18 Effect of applied stress on the times to failure of tensile specimens of experimental ferritic Fe-17Cr-1Ni stainless steels containing various amounts of molybdenum in a magnesium chloride solution boiling at 140 °C (284 °F) More

Fig. 28 Mechanical properties of as-cast A356 alloy tensile specimens as a function of modification and grain size More

Fig. 18.18 Photograph of necking and fracture of tensile specimens of martensitic 41xx steels tempered at 150 °C (300 °F). From left to right: 4130, 4140, 4150 More

Fig. 4.25 Effect of applied stress on the time to failure of tensile specimens of experimental ferritic Fe-17Cr-1Ni stainless steels containing various amounts of molybdenum in a magnesium chloride solution boiling at 140 °C (284 °F). After Ref 4.89 More

Fig. 22 Standard ASTM geometry for threaded tensile specimens. Dimensions for the specimen are taken from ASTM E 8M (metric units), or ASTM E 8 (English units). Abbreviation Dimension Measurement in. mm G Gage length 2.4606 62.5 ±0.1 D Diameter 0.4920 12.5 ±0.2 R More

Fig. 2 Tensile specimens used for monolithic ceramics (each is in correct proportion to the others); all dimensions in mm. Upper row for round specimens; lower row for flat specimens. Source: G.D. Quinn, NIST More

Fig. 41 As-received notched tensile specimen showing location of fracture. Tensile specimen was fabricated from 4340 steel, heat treated to 1515 MPa (220 ksi), and chromium plated. More

Fig. 14 Phenomenon of propagating neck in a polycarbonate tensile specimen. 1 kN = 0.11 tonf; 1 cm = 0.4 in. More

Fig. 18.8 Deformation bands on sheet tensile specimen that showed serrated flow during testing at 150 °C (300 °F). Source: Ref 18.10 More

Fig. 2 A fractured tensile specimen with the typical cup-and-cone fracture characteristic of ductile metals fractured in tension. More

Fig. 2.23 Section through the neck area of a tensile specimen of copper showing cavities and crack formed at the center of the specimen as the result of void coalescence. Source: Ref 2.11 More

Fig. 12.3 Macrograph of tensile specimen. Lüders bands are visible on the surface. Etchant: Fry. More

Fig. 4.10 Definitions of width and thickness strains in a tensile specimen ( Ref 4.9 ) More

Fig. 2 Type 302 stainless steel tensile specimen with the typical cup-and-cone fracture characteristic of ductile metals fractured in tension. In this case, the slant fracture at the surface of the test specimen was in both directions; in other instances, it may be in only one direction More

Fig. 4.3 Axial stress distribution in the necked portion of a tensile specimen. [ Thomsen et al., 1965 ] More

Fig. A3.5 Cylindrical 0.5 in. (12.5 mm) diam sharply notched tensile specimen. Notch tip radius ≤ 0.0005 in. More

Figure 12.40 Double-offset notch “guillotine” tensile specimen for determination of Interlaminar shear strength. Dimensions are in mm. More

Fig. 9.10 Dimensions for standard tensile specimen. Source: Ref 4 More

Fig. 9.14 Comparative appearance of tensile specimen before and after testing. Source: Ref 4 More