Search Results for carbon content

Fig. 9 Hardness vs. carbon content. The practical minimum carbon content can be determined from this curve. Source: Ref 1 More

Fig. 5 Effect of cobalt content and carbon content on the phases present in WC-Co cemented carbides More

Fig. 10 Brinell hardness of cast carbon steels as a function of carbon content and heat treatment. Source: Ref 6 More

Fig. 14 Effect of carbon content in plain carbon steel on the hardness of fine pearlite formed when the quenching curve intersects the nose of the time-temperature diagram for isothermal transformation More

Fig. 23 Effect of carbon content on hardness in plain carbon steels. Curve A: induction hardened. Curve B: furnace hardened and water quenched. Curve C: furnace hardened, water quenched, and tempered. The quenched-and-tempered steels were treated in liquid nitrogen following water quenching More

Fig. 2 Effect of carbon content in iron-carbon alloys on the martensite start (M s ) temperature, the relative proportions of lath and plate martensite, and the volume percent retained austenite. Source: Ref 1 More

Fig. 41 Effect of carbon content on critical quenching rate of pure iron-carbon austenite. Source: Ref 20 More

Fig. 21 Hardness as a function of carbon content in iron-carbon alloys quenched to martensite and tempered at various temperatures. Source: Ref 31 More

Fig. 1 Properties of cast carbon steels as a function of carbon content and heat treatment. (a) Tensile strength and reduction of area. (b) Yield strength and elongation. (c) Brinell hardness. (d) Charpy V-notch impact energy More

Fig. 3 Effect of carbon content on the hardness of low-carbon white iron More

Fig. 6 Effect of carbon content in carbon steels on the nitrogen gradient obtained in aerated bath nitriding More

Fig. 4 Properties of cast carbon steels as a function of carbon content and heat treatment. (a) Tensile strength and reduction of area. (b) Yield strength and elongation. (c) Brinell hardness. (d) Charpy V-notch impact energy More

Fig. 22 Mechanical properties versus carbon content for iron-carbon alloys. Source: Ref 84 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. 1 Approximate influence of carbon content on tensile properties of carbon steels in the as-rolled condition. Applicable to sections about 13 to 20 mm (0.5 to 0.75 in.) thick More

Fig. 28 Properties of cast carbon steels as a function of carbon content and heat treatment. (a) Tensile strength and reduction of area. (b) Yield strength and elongation. (c) Brinell hardness. (d) Charpy V-notch impact energy More

Fig. 5 Relationship of boron factor to carbon content using corrected carbon factor. Source: Ref 10 . Reprinted with permission of the Association for Iron & Steel Technology (AIST) More

Fig. 21 Effect of carbon content on hardness in plain carbon steels, illustrating superhardness exhibited in induction-hardened steels (curve A). Also shown are data for furnace hardened and water quenched (curve B) and furnace hardened, water quenched, and tempered (curve C) steels More

Fig. 23 Mechanical properties versus carbon content for iron-carbon alloys. Source: Ref 75 More