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Fig. 1 Hardness and electrical resistivity versus alloy content for silver alloy contacts More

Fig. 1 Hardness and electrical resistivity versus alloy content for silver alloy contacts More

Fig. 14 Influence of alloy content on hardness of quenched and tempered gray iron test castings. Castings were normalized to the same hardness range before being austenitized for hardening and were oil quenched from 850 °C (1560 °F). More

Fig. 13 Effect of alloy content and section thickness on hardness after normalizing More

Fig. 48 Thermal diffusivity of tool steels as depending on alloy content at 100 °C (210 °F). Curves according to Eq 17 and Table 20 More

Fig. 10 Matrix alloy content in M2 after austenitizing and quenching. a, annealed condition More

Fig. 2 Hardness and electrical resistivity versus alloy content for platinum contacts More

Fig. 3 Hardness and electrical resistivity versus alloy content for palladium contacts More

Fig. 6 Effect of alloy content on martensite start (M s ) temperature of binary alloys. Tantalum has the least effect, while iron depresses the M s at the greatest rate. These rates correlate with strengthening in β-stabilized systems. More

Fig. 2 Effect of alloy content on crack sensitivity of select binary aluminum alloys More

Fig. 11 Effect of alloy content and austenitization temperature on the midpoint (50% transformed) of the transformation of austenite in a low-alloy and a high-alloy iron. Source: Ref 12 More

Fig. 15 Influence of alloy content on hardness of quenched and tempered gray iron test castings. Castings were normalized to the same hardness range before being austenitized for hardening and were oil quenched from 850 °C (1560 °F). More

Fig. 13 Effect of alloy content and section thickness on hardness after normalizing More

Fig. 8 Corrosion rates as a function of total alloy content for uranium alloys in various chloride-containing solutions exposed to air. Data from Ref 20 More

Fig. 15 Distribution of mechanical properties and carbon and alloy contents for alloy steel castings. (a) Cr-Mo-V steel, 1.00Cr-1.00Mo-0.25V, normalized and tempered; 25 heats. (b) Cr-Mo steel, 1.00Cr-1.00Mo, normalized and tempered; 25 heats. (c) Nickel steel, 0.20C-2.25Ni, normalized More

Fig. 75 Effect of molybdenum content on K Iscc for alloy steels. These data are for steel with a yield strength of 760 MPa (110 ksi) in an aqueous 0.5% acetic acid solution saturated with hydrogen sulfide. Solid circles denote heats with vanadium additions. Source: Ref 126 More

Fig. 9 Influence of alloy A356-T6 iron content on fatigue life. From Ref 27 More

Fig. 7 Comparison of stoichiometric carbon content and average alloy carbon content in conventional and PM HSS More

Fig. 8 Comparison of stoichiometric carbon content and average alloy carbon content in conventional and PM cold working tool steels and corrosion resistant PM steels More

Fig. 7 Chromium and nickel content in Alloy Casting Institute standard grades of heat-and corrosion-resistant cast steels. These letters are the second letter in the designation. See text for details. More