Fig. 2-2 Model of (a) the body-centered cubic and (b) the face-centered cubic crystal structures. The calculation of the difference in volume for the two structures is shown, where it is assumed that the atoms are spheres and have the same radius in both structures. The close-packed face More

Fig. 4.2 Body centered cubic and face centered cubic atomic structures More

Fig. 3.6 Schematics of (a) body centered cubic (bcc) and (b) face centered cubic (fcc) structures of pure iron More

Fig. 19.2 Press-hardening process. fcc, face-centered cubic; bcc, body-centered cubic; IF, interstitial free; BH, bake hardenable; HSLA, high strength, low alloy; TRIP, transformation-induced plasticity; DP, dual phase; CP, complex phase; AUST SS, austenitic stainless steel; TWIP, twinning More

Fig. A.5 Face-centered cubic structure; also cubic close-packed structure. Source: Ref A.20 More

Fig. 1.9 Face-centered cubic structure More

Fig. 1.12 Close packing of planes for the face-centered cubic structure More

Fig. 9.7 Aluminum-copper precipitation sequence. fcc, face-centered cubic; bct, body-centered tetragonal. Source: Ref 4 More

Figure 3-8 Patterns developed on face-centered cubic and hexagonal close-packed single crystals by heat tinting, which demonstrates the sensitivity of oxidation to crystal orientation. (From R. J. Gray et al., Ref. 26, courtesy of Plenum Press.) More

Fig. 1 Simplified deformation behavior (Ashby) maps (a) for face-centered cubic metals and (b) for body-centered cubic metals. Source: Ref 2 More

Fig. 4-2 Face-centered cubic crystal structure. A 1 is the structure (Strukturbericht) symbol, and copper is the prototype metal with the fcc structure. Austenite on steel is fcc. Source: Ref 16 More

Fig. 2-10 Illustration of the relationship between the face-centered cubic austenite cell and the martensite body-centered cubic cell derived from it. The lattice parameters are based on a 0.8% C steel and 25°C. (From C.R. Brooks, Heat Treatment of Ferrous Alloys , Hemisphere/McGraw-Hill, New More

Fig. 3 Crystal structures. (a) Austenite, face-centered cubic. (b) Ferrite, body-centered cubic. (c) Martensite, body-centered tetragonal. Source: Ref 1 More

Fig. 3.2 Location of iron atoms in face-centered cubic austenite. Small circles locate the centers of holes between the iron atoms More

Fig. 3.3 Face-centered cubic (fcc) crystal structure. A 1 is structure (Strukturbericht) symbol, and Cu is prototype metal with fcc structure. Austenite in steel is fcc. Source: Ref 3.1 More

Fig. B.3 Face-centered cubic structure More

Fig. 2.9 Face-centered cubic (fcc) crystal structure More

Fig. 2.24 Illustration of the generation of either a face-centered cubic (fcc) or hexagonal close-packed (hcp) structure, depending on the locations of atoms on the close-packed third layer. Source: Ref 2.4 More

Fig. 2.34 Solubility curve of carbon in the austenitic (face-centered cubic) portion of the iron-carbon phase diagram. Also shown is the solubility limit of the cementite carbide (Fe 3 C) in iron. More

Fig. 1.4 The unit cell of a face-centered cubic structure More