Fig. 26 Calculated and measured values of the volume fraction of beta as a function of one-hour thermal cycles from 25 to 1066 °C (75 to 1950 °F) for platinum-aluminum-coated GTD-111 blade More

Fig. 33 Volume fraction of retained austenite in carbon steels fully austenitized and water quenched in water or brine at room temperature. Source: Ref 11 More

Fig. 14 Significant volume fraction of manganese sulfide inclusions in wedge-shaped tapered ring microstructure. 73× More

Fig. 6 Specific volume (Δ V / V ) of carbon steels relative to room temperature. Tempered martensite, <200 °C (390 °F) More

Fig. 13 Effect of microstructural constitutional variation on volume changes during tempering More

Fig. 21 Volume increase of steels 90MnV8 and 145CrV6 as a function of austenitization temperature and specimen dimensions More

Fig. 2 Characteristic volume-loss rate versus time curves. (a) Type I. (b) Type II. (c) Type III. (d) Type IV More

Fig. 3 Dimensionless wear rate, W , at two loads as a function of volume fraction of bronze particles in epoxy-Cu-Al system (Cu-Al particle diameter ≃ 100 μm). Abrading surface, silicon carbide. (a) Fine grade; (b) coarse grade. α-space between two particles, β. LROM; linear rule of mixtures More

Fig. 5 Abrasive wear volume at various loads and SiC abrasive papers as a function of volume fraction of short glass fibers (GF) in PEI. Speed 5 cm/s in single pass condition; distance slid 3.26 m. (a) 120 grade, grit size ≃ 118 μm. (b) 80 grade, grit size ≃ 175 μm. Source: Ref 29 More

Fig. 2 Characteristic volume-loss rate versus time curves. (a) Type I. (b) Type II. (c) Type III. (d) Type IV. Source: Ref 54 More

Fig. 7 Erosion depth, E d , versus local flow volume, q · t . Source: Ref 45 More

Fig. 13 Significant volume fraction of manganese sulfide inclusions in wedge-shaped tapered ring microstructure. Original magnification: 73 × More

Fig. 33 Volume fraction of retained austenite in carbon steels fully austenitized and water quenched in water or brine at room temperature. Source: Ref 14 More

Fig. 8 Monte-Carlo-predicted interaction volume More

Fig. 6 Volume change in the 1200 hr test as a function of the regression parameter. More

Fig. 6 Significant volume fraction of manganese sulfide inclusions in wedge-shaped tapered ring microstructure. 73× More

Fig. 4 Volume fraction of delta ferrite in the cladding of the Midland control specimens. More

Fig. 7 Carbide volume fractions in the cladding of the Midland control specimens. More

Fig. 14 Full-volume inspection of a porosity sample More

Fig. 7 Illustration of interaction volume of depth, R , with corresponding escape depths and information depths, L , and lateral probe size, x , for different signal types More