Fig. 3 Ashby deformation maps for MAR-M 200. A turbine blade will deform rapidly by boundary diffusion at a grain size of (a) 100 μm but not a grain size of (b) 1 cm More

Fig. 8 Deformation map (a) used to predict PC part deformation at 82 °C (180 °F). Ê = E(T,t) /2350 MPa. (b) Comparison of cathode-ray-tube housing creep prediction More

Fig. 25 Deformation map for various failure mechanisms as a function of temperature and sulfur contents for preoriented polyisoprenes. Source: Ref 41 More

Fig. 26 Deformation map for various failure mechanisms as a function of temperature and sulfur contents for preoriented polyisoprenes. Source: Ref 17 More

Fig. 21 Simplified deformation behavior (Ashby) maps of unalloyed annealed metals with (a) face-centered cubic crystal structure and (b) body-centered cubic crystal structure. Engineering alloys may behave somewhat differently than unalloyed metals, but these general trends are relatively More

Fig. 10 Processing maps showing deformation modes during hydrostatic coextrusion. The ordinate is the friction factor m ′ at the core/clad interface, and the abscissa is the ratio of the yield strengths of the core and the clad (based on Ref 30 ). (a) For closed-end extrusion. (b) For open More

Fig. 26 Deformation mechanism maps for (a) zinc-aluminum and (b) lead-tin in terms of grain size versus stress. According to the dislocation mechanisms of superplasticity, a transition from superplasticity to dislocation creep should occur when d /b ≅ 10 μ/τ. This is approximately observed More

Fig. 26 Deformation mechanism maps for (a) zinc-aluminum and (b) lead-tin in terms of grain size versus stress. According to the dislocation mechanisms of superplasticity, a transition from superplasticity to dislocation creep should occur when d /b ≅ 10 μ/τ. This is approximately observed More

Fig. 45 Deformation-mechanism maps for (a) thoria-dispersed nickel and (b) type 316 stainless steel. Diffusional flow is a type of creep that occurs at very high temperatures and very low stresses. More

Fig. 1 Simplified deformation behavior (Ashby) maps (a) for face-centered cubic metals and (b) for body-centered cubic metals. Source: Ref 2 More

Fig. 23 Deformation and fracture maps for (a) magnesium and (b) magnesium oxide. Mode 1, 2, and 3 represent regions of brittle fracture mechanisms (cleavage or intergranular fracture) with the following conditions: region 1, preexisting cracks propagate; region 2, slip or twin-nucleated cracks More

Fig. 17 Simplified deformation behavior (Ashby) maps of unalloyed annealed metals with (a) face-centered cubic crystal structure and (b) body-centered cubic crystal structure. Engineering alloys may behave somewhat differently than unalloyed metals, but these general trends are relatively More

Fig. 2 Deformation mechanism maps for MAR-M 200 alloy at a grain size of (a) 100 μm and (b) 1 cm (0.4 in.) More

Fig. 22 Deformation and fracture map for (a) magnesium and (b) magnesium oxide. Mode 1, 2, and 3 represent regions of brittle fracture mechanisms (cleavage or IG fracture) with the following conditions: Region 1, pre-existing cracks propagate; Region 2, slip or twin-nucleated cracks propagate More

Fig. 24 Deformation and fracture map for spheroidized 1045 steel. Source: Ref 40 More

Fig. 38 Composite processing map for aluminum showing safe region for deformation. Boundaries shift with microstructure. Source: Ref 38 More

Fig. 1 Typical deformation-processing map for austenitic stainless steel, showings regions of ductile fracture, wedge cracking, dynamic recrystallization, and “safe” forming. Note that the boundaries for safe forming (i.e., the loci of processing conditions between ductile fracture and wedge More

Fig. 19 Deformation mechanism map of aluminum alloy 5083 with superplastic forming, quick plastic forming, and hot stamping. GBS = grain boundary sliding, SD = slip deformation, PLB = persistent Lüders, or slip, bands. Source: Ref 10 More

Fig. 9 Ashby deformation mechanism map for pure nickel with a grain size of 0.1 mm. L.T., low temperature; H.T., high temperature More

Fig. 8 Deformation mechanism map for creep of pure alumina (Al 2 O 3 ) with a grain size ( d ) of 100 μm. Source: Ref 12 More