Search Results for element

Fig. 22.23 (a) Finite-element model of original punch geometry. (b) Finite-element model of modified punch geometry (A, face; B, lower punch corner; C, cone angle; D, fillet radius; E, edge) [ Lange et al., 1992b ] More

Fig. 23.21 Finite-element simulation of orbital forming (finite-element model and stress distribution) [ Altan et al., 2003 ] More

Fig. 1.37 Examples of element geometries available in an h-version finite element code More

Fig. 5.28 Sample finite element model showing an M.I.T. element surrounded by other conventional rectangular and triangular elements. The five nodes for the cracked element are 17, 18, 19, 20, and 21. The crack line starts from node 23 and ends in the middle between nodes 21 and 17 More

Fig. 3 Influence of alloying element on corrosion rate as explained by the effect on polarization. Source: Ref 6 More

Fig. 8 Influence of alloying element on corrosion rate in contaminated sulfuric acid. Source: Ref 11 More

Fig. 8.15 The quarter finite element model of round cup drawing. Source: Ref 8.15 More

Fig. 8.16 Tool geometry used in the finite element simulations and experiments. Source: Ref 8.15 More

Fig. 8.18 Punch force/punch stroke curves obtained from finite element model (FEM) simulations and experiment (Exp) with lubricant (Lub A). COF, coefficient of friction. Source: Ref 8.15 More

Fig. 8.30 Thickness distribution predicted by the finite element analysis simulations. Source: Ref 8.18 More

Fig. 8.33 Deformed cup geometry with severe wrinkling predicted by finite element analysis simulation using a blank holder force of 2 tons. Source: Ref 8.18 More

Fig. 6.51. Relationship between residual-element content and ductility ( Ref 119 ). More

Figure 8 SEM image and EDS element maps of poorly sectioned and polished TBC showing highlighted scratches and carbon in the TC crack. More