Fig. 3.11 Continuous cooling diagram for a linear cooling rate. Derived from the isothermal transformation diagram shown in Fig. 3.9 for a plain carbon eutectoid steel. H, start of transformation to pearlite; I, finish of transformation to pearlite; J, start of transformation to upper More

Fig. 24.13 Schematic continuous cooling diagram for a typical tool steel. Cooling rates in decreasing order are represented by T 1 , T 2 , T 3 , and C i , P i , and B i represent the initiation of carbide, pearlite, and bainite formation, respectively. Source: Ref 24.26 More

Fig. 4-3 Cooling rate as a function of cooling temperature derived from the curves in Fig. 4-2 . (From same source as Fig. 4-1a ) More

Fig. 24-52 Cooling curves and cooling rate curves at center of a 1.5 in. diameter probe quenched in unagitated hot water More

Fig. 24-53 Cooling curves and cooling rate curves produced by (a) 80 °F, (b) 90 °F, (c) 140 °F, (d) 160 °F water flowing at 50 fpm past a 1.5 in. diameter bar More

Fig. 24-54 Cooling curves and cooling rate curves in a 1 in. diameter stainless probe quenched in 5, 15, and 25% at 110 °F and flowing at 50 fpm More

Fig. 24-55 Cooling curves and cooling rate curves in a 1 in. diameter stainless probe quenched in 10% PAG at 80, 100, and 120 °F and flowing at 50 fpm More

Fig. 24-56 Cooling curves and cooling rate curves in a 1 in. diameter stainless probe quenched in 20% PAG 110 °F and flowing at 0, 50, and 100 fpm More

Fig. 7.7 Influence of strain rate. Cooling rate = 80 K/s (145 °F/s). Source: Ref 7.9 More

Fig. 7.8 Influence of strain rate at 500 °C (930 °F). Cooling rate = 80 K/s (145 °F/s). Source: Ref 7.9 More

Fig. 12.13 Typical cooling rate curves for several types of quenchants at 30 °C (85 °F) and not agitated. Source: Ref 12.22 More

Fig. 12.14 Cooling rate curves for two different oils. Source: Ref 12.24 More

Fig. 12.15 Cooling rate curves for conventional oil at 40 °C (105 °F), showing effects of agitation. Source: Ref 12.22 More

Fig. 12.16 Cooling rate curves for polyalkalene glycol (PAG) polymer quenchant compared to oil quenchants. Source: Ref 12.25 More

Fig. 11.3 Effect of cooling rate on microstructure. Source: Ref 1 More

Fig. 11.18 Comparison of different geometries with the same cooling rate at the center. Source: Ref 8 More

Fig. 1 Effect of cooling rate on the increase in yield strength due to precipitation strengthening in a 0.15% V steel More

Fig. 2.12 Effect of cooling rate on development of final microstructure. Source: Ref 2.1 More

Fig. 2.14 Block diagram of the effect of cooling rate on development of final microstructure. Source: Ref 2.1 More

Fig. 12.21 Effect of cooling rate on stress-rupture life of a cast nickel-base superalloy at 982 °C (1800 °F)/200 MPa (29 ksi) More