Solid State Behavior of Linear Polyesters and Polyamides |
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Page 90
He introduced an effective Debye - Waller factor exp ( - ks ) to account for the
intensity decrease due to defects . The intensity of the crystalline reflection at
scattering vector s is then I ( 8 ) = BI . : \ F ( s ) . g ( s ) · X · exp ( - ks ? ) , ( 4 ) where
B is a ...
He introduced an effective Debye - Waller factor exp ( - ks ) to account for the
intensity decrease due to defects . The intensity of the crystalline reflection at
scattering vector s is then I ( 8 ) = BI . : \ F ( s ) . g ( s ) · X · exp ( - ks ? ) , ( 4 ) where
B is a ...
Page 160
The stress concentration factor associated with an elliptical hole corresponding to
the amorphous domain of the low - draw ratio fiber was obtained using Q = 1 +
2D / h ( 17 ) where Q = stress concentration factor , D = diameter of the crack ...
The stress concentration factor associated with an elliptical hole corresponding to
the amorphous domain of the low - draw ratio fiber was obtained using Q = 1 +
2D / h ( 17 ) where Q = stress concentration factor , D = diameter of the crack ...
Page 163
The factors controlling the strength of PET and nylon 6 fibers are the extended
chain domains between the microfibrils and the stress intensity factor associated
with the presence of the microcracks in the system . The parameters affecting the
...
The factors controlling the strength of PET and nylon 6 fibers are the extended
chain domains between the microfibrils and the stress intensity factor associated
with the presence of the microcracks in the system . The parameters affecting the
...
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achieved acid additional amorphous annealing Appl applied aspect average behavior block bonding changes Chem chemical composites conclusion constant crack crystallinity crystallization curves decreases deformation density depends determined diameter diffusion direction distribution domains draw ratio drawn effect element energy Equation experiments extrusion factor fatigue fiber Figure fracture fracture toughness function given groups growth healing heat higher important increasing indicated initial length linear load lower material matrix maximum measurements mechanical melt method microfibrils microstructure modulus molded molecular weight molecules nylon nylon 66 observed obtained occurs orientation peak phase Phys polyamides polycondensation polyesters Polymer Sci polymerization properties range reaction regions reported Reprinted from Ref respectively samples SAXS scattering shows solid solid state polycondensation solid-state specimen speed stage strain strength stress structure studied Table temperature tensile units values yield