Fig. 9 Temperature effects on brake lining specific wear rates More

Fig. 20 Schematic representation of temperature effects on factors that determine precipitation rate during quenching More

Fig. 36 Schematic representation of temperature effects on factors that determine precipitation rate during quenching More

Fig. 8 Effects of inlet oil temperature Δ t in on the side plate temperature Δ t sp with respect to the discharge pressure p d of the gear pump (VG46, N = 25 s −1 ) More

Fig. 23 Effects of annealing temperature on martensite start temperature (M s ), phase composition, and as-quenched hardness of Ti-6Al-4V. Source: Ref 9 More

Fig. 6 Typical peak temperature versus cooling time diagram, showing the effects of these parameters of a weld thermal cycle on the final transformation products, on hardness, and on Charpy V-notch impact energy. B, bainite; M, martensite; F, ferrite. Figures in squares indicate the hardness More

Fig. 26 Effects of time at elevated temperature on the tensile properties of static and centrifugal CF8 alloy castings. Parts had a ferrite number of 9 to 11 and contained 0.081% N. More

Fig. 109 Effects of temperature and oxygen content on the Charpy V-notch impact energy of wrought electron-beam-melted tantalum. Sample impurities: <44 ppm C + N 2 . Temperature, °C More

Fig. 14 General effects of supersaturation and temperature on coating microstructure. Source: Adapted from Ref 14 More

Fig. 2 Effects of differences in the time-temperature-transformation (TTT) diagram of surface and core on the stress development during cooling. Source: Ref 6 More

Fig. 13 Effects of (a) time and (b) temperature on the thickness of a silicide coating applied by the fluidized-bed process to Mo-0.5Ti alloy More

Fig. 11 Effects of coating thickness and exposure temperature on oxidation of coated and uncoated steel. Oxidation at 480 to 870 °C (900 to 1600 °F). Steel 6.4 mm ( 1 4 in.) thick was completely oxidized after 700 h at 870 °C (1600 °F). More

Fig. 19 Effects of austenitizing temperature on grain size and martensite start (M s ) temperature of 52100 steel More

Fig. 8 Effects of quenchant temperature on cooling power in end-quench test. Effect is slight up to 38 °C (100 °F), impaired at 52 °C (125 °F), and greatly impaired above 71 °C (160 °F) More

Fig. 20 Effects of hydrogen content (375 ppm), strain rate, and temperature on the tensile ductility of typical α/β-titanium alloy unnotched tensile specimens. Source: Ref 30 More

Fig. 13 Effects of temperature and of duration of carbonitriding on effective case depth. Both sets of data were obtained in the same plant. Note that upper graph (for 1020 steel) is in terms of total furnace time, whereas bottom graph (for 1112 steel) is for 15 min at temperature. More

Fig. 6 Effects of austenitizing temperature and quenching medium on hardness of as-quenched malleable iron More

Fig. 11 Effects of temperature and of duration of carbonitriding on effective case depth. Both sets of data were obtained in the same plant. Note that the graph in (a) (for 1020 steel) is in terms of total furnace time, whereas the graph in (b) (for 1112 steel) is for 15 min at temperature. More

Fig. 1 Effects of temperature and time on 6022-T43 sheet yield strength with (a) no prestrain and (b) 2% prestrain. Source: Ref 2 More

Fig. 41 Effects of room-temperature aging on the electrical conductivity of common heat treatable aluminum alloys that have been solution heat treated and quenched. Product form is aluminum sheet. More