Figure 9 AFM image of slip lines (dislocations) at the silicon surface of a fabricated device. The green arrows point to the slip lines. More

Fig. 12.33 Deformation twins and dislocations in an Fe-0.007 wt% C- 28 wt% Mn-3 wt% Al-3 wt% Si TWIP steel deformed to 20% strain. Thin foil transmission electron micrograph. Courtesy of Dean Pierce, Colorado School of Mines More

Fig. 12.34 Stacking faults bounded by partial dislocations in austenite of an Fe-0.005 wt% C-25 wt% Mn-3 wt% Al-3 wt% Si TWIP steel deformed to 1.5% strain. Thin foil transmission electron micrograph. Courtesy of James Wittig, Vanderbilt University More

Fig. 2.27 Grain boundaries act as barriers to slip by dislocations. Source: Ref 2.1 More

Fig. 4.33 Interaction of parallel dislocations of different signs. (a) Cancellation. (b) Formation of a vacancy More

Fig. 4.36 Production of dislocations [ Fra 50 ] More

Fig. 4.39 Interaction of dislocations and particles [ Ber 83 ]. (a) Intersection of “soft” particles. (b) Bypassing of “hard particles” More

Fig. A.37 Combination screw and line dislocations. Source: Ref A.1 More

Fig. A.42 Displacements caused by line and screw dislocations. Source: Ref A.1 More

Fig. 10.10 Moiré method used to observe dislocations in crystal lattice by electron microscopy. (a) Parallel case. (b) Rotation case. Source: Ref 10.13 More

Fig. 10.11 Observation of dislocations by decoration. Source: Ref 10.14 More

Fig. 10.13 Observation of dislocations in silicon by x-ray diffraction. Source: Ref 10.16 More

Fig. 10.16 Sketch of dislocations coalescing to form a crack nucleus. Source: Ref 10.10 More

Fig. 10.17 Vacancy formation. Coalescence of (a) two dislocations and (b) three dislocations More

Fig. 10.19 Edge dislocations of opposite sign (shown by ┴ shaped symbol) moving along glide planes to condense and increase size of nucleus ( N ). Source: Ref 10.6 More

Fig. A.17 Multiplication of dislocations by the Frank-Read source. Source: Ref A.22 More

Fig. A.18 A complex jungle of dislocations observed in silicon by x-ray diffraction. Source: Ref A.31 More

Fig. A.30 New dislocations generated at precipitated particles as dislocation moves past them More

Fig. 8 A grain boundary modeled as an array of edge dislocations More