Search Results for volume

Fig. 4 Effect of pigment volume concentration/critical pigment volume concentration (PVC/CPVC) ratio on mechanical and electrical properties of a zinc-rich primer film. Source: Ref 16 More

Fig. 32 Surface-rendered images of small volume segments from large-volume high-resolution 3-D microstructures reconstructed from large number (∼100) of montage serial sections. (a) 3-D image depicting tungsten grains in a liquid phase sintered W-Ni-Fe-alloy. Source: Ref 35 , Ref 95 . (b More

Fig. 23 (a) Volume generated by a stack of conventional serial sections. (b) Volume generated by a stack of montage serial sections. Source: Ref 30 More

Fig. 6 Volume changes of steel during heat treatment. (a) Specific volume (Δ V / V ) of carbon steels relative to room temperature. Tempered martensite, <200 °C (390 °F). (b) Effect of microstructural constitutional variation on volume changes during tempering. Source: Ref 5 , 6 , 7 More

Fig. 19 Mapped surface (left) and volume mesh (right) of a disk slice. The volume elements respect exactly the dimensions chosen by the user. More

Fig. 15 Measured mean volume of martensitic plates versus volume fraction of martensite in an Fe-32.3Ni alloy with austenitic grain size D = 80, 200, and 800 μm More

Fig. 18 Calculated volume change in a cylindrical cast iron sample. Δ V A , volume-change calculation based only on axial displacement; Δ V A+R , volume-change calculation based on both axial and radial displacements. Source: Ref 3 More

Fig. 12 Pressure-volume-temperature diagram of specific volume as a function of thermoplastic feedstock temperature and pressure More

Fig. 1 Relative control-volume movement. Control volume fixed relative to xyz , which moves with velocity V → relative to XYZ More

Fig. 2 Schematic of a computer-controlled multiple-expansion volume introduction system. More

Fig. 5 Inclusion volume fraction as a function of magnification and number of fields measured. More

Fig. 6 Relative accuracy of the inclusion volume fraction measurements as a function of magnification and the number of fields measured. More

Fig. 7 Relative accuracy of inclusion volume fraction measurements as a function of total measurement area. More

Fig. 8 Range of inclusion volume fraction data as a function of the number of fields measured and magnification. More

Fig. 9 Volume fraction of ferrite as a function of number of fields measured and magnification. At high magnifications, equiaxed ferrite and ferrite within the coarse pearlite were detected More

Fig. 89 Example of grain-boundary diffusion compared to volume diffusion. Same 650 °C (1200 °F) ternary austenite specimen as shown in Fig. 87(a) and 87(b) . Source: Ref 72 More

Fig. 18 The sample volume producing inelastically backscattered electrons and Kα x-rays in iron with a 20-keV beam. More

Fig. 2 Monte Carlo electron trajectory calculation of electron interaction volume in an iron target with a beam energy of 20 keV. Source: Ref 7 More

Fig. 10 Arbitrary test volume enclosing a fracture surface More

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