Influence of structural defects on viscoelastic properties of poly(propylene)

2007 ◽  
pp. 164-172 ◽  
Author(s):  
R. W. Garbella ◽  
J. Wachter ◽  
J. H. Wendorff
Keyword(s):  
Viscoelastic Properties ◽  
Structural Defects ◽  
Poly Propylene

Comparison of the dielectric and viscoelastic properties of two poly (propylene glycol) liquids

Polymer ◽  
1976 ◽  
Vol 17 (8) ◽  
pp. 665-669 ◽  
Author(s):  
Turhan Alper ◽  
A.John Barlow ◽  
R.Walter Gray
Keyword(s):  
Propylene Glycol ◽  
Viscoelastic Properties ◽  
Poly Propylene

Effect of polar forces on the viscoelastic properties of poly(propylene oxide)

2007 ◽  
Vol 14 (1) ◽  
pp. 313-322 ◽  
Author(s):  
J. Moacanin ◽  
E. F. Cuddihy
Keyword(s):  
Propylene Oxide ◽  
Viscoelastic Properties ◽  
Poly Propylene

Effect of the comonomer content on the solid-state mechanical and viscoelastic properties of poly(propylene-co -1-butene) films

2018 ◽  
Vol 135 (23) ◽  
pp. 46350
Author(s):  
Alper Kasgoz ◽  
Murat Tamer ◽  
Ciler Kocyigit ◽  
Ali Durmus
Keyword(s):  
Solid State ◽  
Viscoelastic Properties ◽  
Poly Propylene ◽  
Comonomer Content

Viscoelastic properties of poly(propylene glycols)

Polymer ◽  
1975 ◽  
Vol 16 (2) ◽  
pp. 110-114 ◽  
Author(s):  
A Barlow
Keyword(s):  
Viscoelastic Properties ◽  
Poly Propylene

Influence of structural defects on the viscoelastic properties of a lamellar lyotropic phase

1985 ◽  
Vol 46 (5) ◽  
pp. 831-838 ◽  
Author(s):  
P. Oswald ◽  
M. Allain
Keyword(s):  
Viscoelastic Properties ◽  
Structural Defects

Non-linear viscoelastic properties of ordered phases of a poly(ethylene oxide)-poly(propylene oxide) triblock copolymer

2008 ◽  
Vol 47 (7) ◽  
pp. 765-776 ◽  
Author(s):  
Jean-Pierre Habas ◽  
Emmanuel Pavie ◽  
Alain Lapp ◽  
Jean Peyrelasse
Keyword(s):  
Ethylene Oxide ◽  
Propylene Oxide ◽  
Viscoelastic Properties ◽  
Triblock Copolymer ◽  
Ordered Phases ◽  
Non Linear ◽  
Linear Viscoelastic ◽  
Poly Ethylene Oxide ◽  
Poly Ethylene ◽  
Poly Propylene

Quantifying Structural and Solid-State Viscoelastic Properties of Poly(propylene) (PP)/Poly(oxymethylene) (POM) Blend Films

2016 ◽  
Vol 301 (11) ◽  
pp. 1402-1414 ◽  
Author(s):  
Alper Kasgoz ◽  
Dincer Akın ◽  
Ali Durmus
Keyword(s):  
Solid State ◽  
Viscoelastic Properties ◽  
Blend Films ◽  
Poly Propylene

Transmission electron microscopy of composite materials

1988 ◽  
Vol 46 ◽  
pp. 1012-1015
Author(s):  
K.P.D. Lagerlof
Keyword(s):  
Composite Materials ◽  
Physical Properties ◽  
Structural Defects ◽  
Structural Composites ◽  
Multiphase Materials ◽  
Structural Reinforcement ◽  
Transmission Electron ◽  
Reinforced Fiber ◽  
Particulate Reinforced Composites ◽  
Definition Of

Although most materials contain more than one phase, and thus are multiphase materials, the definition of composite materials is commonly used to describe those materials containing more than one phase deliberately added to obtain certain desired physical properties. Composite materials are often classified according to their application, i.e. structural composites and electronic composites, but may also be classified according to the type of compounds making up the composite, i.e. metal/ceramic, ceramic/ceramie and metal/semiconductor composites. For structural composites it is also common to refer to the type of structural reinforcement; whisker-reinforced, fiber-reinforced, or particulate reinforced composites [1-4].For all types of composite materials, it is of fundamental importance to understand the relationship between the microstructure and the observed physical properties, and it is therefore vital to properly characterize the microstructure. The interfaces separating the different phases comprising the composite are of particular interest to understand. In structural composites the interface is often the weakest part, where fracture will nucleate, and in electronic composites structural defects at or near the interface will affect the critical electronic properties.

High-angle electron scattering from amorphous silicon

1995 ◽  
Vol 53 ◽  
pp. 162-163
Author(s):  
M. Libera ◽  
J.A. Ott ◽  
K. Siangchaew ◽  
L. Tsung
Keyword(s):  
Electron Scattering ◽  
Amorphous Material ◽  
Structural Defects ◽  
Constant Thickness ◽  
High Angle ◽  
Fast Electrons ◽  
Angle Scattering ◽  
Stem Image ◽  
Amorphous Si ◽  
Thermal Vibrations

Channeling occurs when fast electrons follow atomic strings in a crystal where there is a minimum in the potential energy (1). Channeling has a strong effect on high-angle scattering. Deviations in atomic position along a channel due to structural defects or thermal vibrations increase the probability of scattering (2-5). Since there are no extended channels in an amorphous material the question arises: for a given material with constant thickness, will the high-angle scattering be higher from a crystal or a glass?Figure la shows a HAADF STEM image collected using a Philips CM20 FEG TEM/STEM with inner and outer collection angles of 35mrad and lOOmrad. The specimen (6) was a cross section of singlecrystal Si containing: amorphous Si (region A), defective Si containing many stacking faults (B), two coherent Ge layers (CI; C2), and a contamination layer (D). CBED patterns (fig. lb), PEELS spectra, and HAADF signals (fig. lc) were collected at 106K and 300K along the indicated line.

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