Fig. 5.6 Temperature changes during continuous annealing of DP steel sheets. Source: Ref 5.3 More

Fig. 5.6 Temperature changes during continuous annealing of dual-phase steel sheets. M s , martensite start temperature. Source: Ref 5.3 More

Fig. 12.11 Low carbon steel sheet C = 0.06%, Mn = 0.55%, after cold working, in the work hardened state, prior to annealing. Very elongated grains of ferrite and cementite. Hardness: 95 HRB. More

Fig. 6.4 Engineering stress-strain curves of five advanced high-strength steel sheet materials. Source: Ref 6.7 More

Fig. 23 Laminations in rolled steel sheet resulting from insufficient cropping of the pipe from the top of a conventionally cast ingot. Courtesy of V. Demski, Teledyne Rodney Metals. Source: Ref 14 More

Fig. 24 Forming limit diagram for aluminum-killed steel sheet. Adapted from Ref 14 More

Fig. 6 Corrosion pits in thin-walled austenitic stainless steel sheet approximately 0.5 mm (0.02 in.). Courtesy of M.D. Chaudhari. Source: Ref 5 More

Fig. 4 Deep-drawing properties of steel sheet grades More

Fig. 13.31 Cross section of steel sheet galvanized by immersion. No etching. More

Fig. 13.33 Cross section of a steel sheet coated by galvalume. No etching. More

Fig. 5.47 Micrographs of a cold-worked AISI 316 stainless steel sheet taken with (a) bright-field illumination and (b) differential interference contrast illumination. Note the excellent clarity of surface relief in the differential interference contrast illumination. Electrolytic etch (10 More

Fig. 7.1 Microstructure of a nickel-plated AISI/SAE 1008 steel sheet specimen showing embedded silicon carbide particles from the grinding paper. The nickel layer pulled away from the mount during the curing process and produced a gap. The mount appears black, the nickel layer is unattacked More

Fig. 7.12 Microstructure of a dual-phase steel sheet showing the results of deformation by shearing. (a) Correct dual-phase microstructure away from the shear burr. (b) Shear burr region where pools of retained austenite have transformed to martensite by the plastic deformation. Arrows More

Fig. 7.18 Microstructure of a low-carbon steel sheet that was electroless nickel plated on both sides. (a) Specimen mounted in epoxy. (b) Specimen mounted in thermosetting phenolic resin. Note the damage in (b) due to the thermal-compression mounting process. Unetched. 100× More

Fig. 7.21 Micrographs showing low-carbon steel sheet with the tight interface that can be achieved in a mechanical clamp (clamp shown above specimen) (a) and the flat edges of two sheet specimens in a mechanical clamp with a gap between specimens (b). Marshall’s etch. 500× More

Fig. 7.27 Steel sheet placed next to the specimen in an epoxy mount for edge retention More

Fig. 8.39 Very-low-carbon motor lamination steel sheet showing columnar grains growing from the sheet surface and equiaxed ferrite grains in the center. Beraha’s reagent. 75× More

Fig. 12.29 Engineering stress-strain curves for 10B22 steel sheet specimens water quenched to martensite and tempered at the temperatures shown for 1 hour. Source: Ref 12.75 More

Fig. 3.11 Microstructure of a cold-rolled, low-carbon steel sheet. Cold-worked (a) 30%, (b) 50%, (c) 70%, and (d) 90%. Marshall’s etch. 500× More

Fig. 3.16 Microstructure of cold-rolled, interstitial-free steel sheet that has been annealed for 1 min at (a) 649 °C (1200 °F), (b) 676 °C (1250 °F), (c) 704 °C (1300 °F), and (d) 732 °C (1350 °F). Marshall’s etch. 400× More