Edge dislocations occur when an extra half-plane of atoms is inserted into the crystal lattice, resulting in a step-like structure, whereas screw dislocations involve shear distortion of the crystal lattice, with the atoms moving along a dislocation line in a spiral fashion. Edge dislocations have a greater impact on the crystal's mechanical properties, such as strength, while screw dislocations are more significant in terms of deformation and plasticity.
Edge dislocations move faster than screw dislocations because edge dislocations have higher resolved shear stress on their slip plane, allowing them to move more easily through a material. Screw dislocations, on the other hand, require the motion of multiple atoms to move, causing them to move more slowly than edge dislocations.
Defects in crystal structures can occur at various locations, such as point defects (vacancies, interstitials, substitutional impurities), line defects (dislocations), and surface defects (grain boundaries, stacking faults). These defects can influence the physical and chemical properties of the material, including its mechanical strength, electrical conductivity, and optical behavior.
Yes, there is a difference between edge triggering and pulse triggering. Edge triggering occurs when a circuit changes state based on the transition of an input signal (e.g., from low to high or high to low). Pulse triggering, on the other hand, involves triggering a circuit based on the detection of a specific pulse width within the input signal.
A wedge is a type of inclined plane that has two inclined surfaces meeting at a sharp edge. The screw is a type of inclined plane wrapped around a cylindrical shaft. Both the wedge and the screw utilize the principle of an inclined plane to multiply force and make it easier to perform tasks like splitting wood with a wedge or holding materials together with a screw.
A level-triggered clock responds to the continuous logic level of its input signal (high or low), while an edge-triggered clock responds to a specific transition in the signal (rising or falling edge). This means that a level-triggered clock continuously monitors the input signal level, while an edge-triggered clock only "notices" a change in the signal level at the edge.
Edge dislocations move faster than screw dislocations because edge dislocations have higher resolved shear stress on their slip plane, allowing them to move more easily through a material. Screw dislocations, on the other hand, require the motion of multiple atoms to move, causing them to move more slowly than edge dislocations.
the natur of doublecross slip of scrow dislocations as in duced by a locked parallel scrow dislocation that of edge dislocations a sin duced by locked edge dislocation through climb and that of the cross climb of edge dislocations os induced by another edge dislocation through slip are studied in the light of the interaction of the mutual stress fields of the dislocations
Dislocations move because the resolved shear stress (Schmidfactor) is sufficient high enough to activate the glide system in which the slip plane lies. (slip) Screw-dislocations in fact are able to move from one slip plane to another parallel plane (burgers vector does not change!). In a fcc lattice a $dislocation may change the (111) plane to (1 -1 1) plane due to local stresses. (cross slip) Edge dislocations can change their planes too. It is a thermally activated process which is called climb (vacancy flux).
Two corners make up an edge.
A side is basically a geometrical shape; an edge is where two sides meet.
A side is basically a geometric shape; and edge is where two sides met.
ask ur math teacher ;)
the papaya leaf have a entire edge while the rambutan leaf have a jagged edge
An edge is where two faces of a three dimensional figure meet. An vertex is where three edges meet.
One is on an inside edge and one is on an outside edge!
One cutting edge vs two
Gilt-edge securities are those considered the safest investments. If they were stocks, they'd be called Blue Chips.