Fig. 7.7 Influence of the ratio tool set diameter, d , to the diameter of the pressure ring in the press front platen, D , on bending as a function of the increasing pressure ring radius. Source: SMS-Emoco More

Fig. 2.9 Critical diameter as a function of diameter for round bars. Source: Ref 2 More

Fig. 4.50 Outside-diameter heat, inside-diameter quench. Source Ref 12 More

Fig. 3 Circumscribing circle diameter (CCD). OD, outside diameter More

Fig. 3-16 The ratio of the unhardened diameter D u to that of the diameter D versus the diameter D, from the photographs in Fig. 3-15 . Note that at D u /D = 0, the diameter is the critical diameter D 0 = 1.05 inch for the quench used More

Fig. 4-19 Hardness across the diameter of 1 and 3 inch diameter cylinders when using quenchants of H = 0.20, 1.00 and ∞. These curves are based on the minimum in the hardenability band of a 1340H steel More

Fig. 4-20 Hardness across the diameter of 1 and 3 inch diameter cylinders when using quenchants of H = 0.20, 1.00 and ∞. These curves are based on the minimum in the hardenability band of a 4340H steel More

Fig. 11.15 Plot of base diameter, D B , used for calculating ideal diameter. Source: Ref 2 More

Fig. 11.16 Relationship between ideal diameter and critical diameter. Source: Ref 8 More

Fig. 6 Sintered bush. (a) Outside diameter wear. (b) Outside diameter crack More

Fig. 9 Quench of a 25 mm diameter × 100 mm (1.0 in. diameter × 4 in.) cylinder of a CrNi steel into water at 30 °C (85 °F) with an agitation rate of 0.3 m/s (1 ft/s). Courtesy of H.M. Tensi, Technical University of Munich More

Fig. 12.17 Influence of specimen diameter/mean grain diameter ratio and solution temperature on the creep-rupture properties of a wrought nickel-base superalloy tested at 870 °C (1600 °F)/138 MPa (20 ksi). Note: Grain size was a function of solution temperature, as shown on MCR plot. More

Fig. 5.17 Critical diameter as a function of diameter for round bars. Source: Ref 2 More

Fig. 7.100 Temperature at the internal liner bore and the mantle internal diameter measured on a container with cooling (broken line) and without cooling (solid line). Source: Groos More

Fig. 3.21. Effect of specimen diameter on creep behavior of a ½Cr-Mo-V steel tested in air at 675 °C (1245 °F) ( Ref 119 ). More

Fig. 13 Weld overlay IGSCC mitigation technique. ID, inside diameter; OD, outside diameter More

Fig. 6.28 Small diameter long tubing More

Fig. 8.56 Illustration of method for joining small- to large-diameter copper tubing for induction coils Source: F. W. Curtis, High Frequency Induction Heating, McGraw-Hill, New York, 1950 More

Fig. 7.7 Hardness profile of ring gear tooth at pitch diameter (PD) More