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Fiber-polymer interface

Piggott, M. R. (1987). Debonding and friction at fiber-polymer interface. I Criteria for failure and sliding. Composites Sci. Technol. 30, 295-306. [Pg.168]

Chua P.S. and Piggott M.R. (1985). The glass fiber-polymer interface IV - Controlled shrinkage polymers. Composites Sci. Technol. 22, 24.5-258. [Pg.274]

Imaging of Fiber-Polymer Interface and Interphase using Contact Mode AFM... [Pg.160]

Poleunis C, Fallais I, Carlier V, Sclavons M, Bertrand P, Legras R, ToF-SIMS imaging of carbon fiber polymer interface in composite materials, Proc l(f International Gonf on Secondary Ion Mass Spectrometry SIMS X, Wiley, Munster, Oct 1-6, 1995. [Pg.498]

Glass fiber-reinforced grades exhibit a significant reduction in mechanical properties. This can be explained (as for many other glass fiber-reinforced plastics) by capillary effects at the glass fiber/polymer interface (wicking effect) [837],... [Pg.793]

Other than in polymer matrix composites, the chemical reaction between elements of constituents takes place in different ways. Reaction occurs to form a new compound(s) at the interface region in MMCs, particularly those manufactured by a molten metal infiltration process. Reaction involves transfer of atoms from one or both of the constituents to the reaction site near the interface and these transfer processes are diffusion controlled. Depending on the composite constituents, the atoms of the fiber surface diffuse through the reaction site, (for example, in the boron fiber-titanium matrix system, this causes a significant volume contraction due to void formation in the center of the fiber or at the fiber-compound interface (Blackburn et al., 1966)), or the matrix atoms diffuse through the reaction product. Continued reaction to form a new compound at the interface region is generally harmful to the mechanical properties of composites. [Pg.14]

DeLong, J.D., Hook, K.J., Rich, M.J., Kalnata, J. and Drzal, L.T. (1990). Spectroscopic characterization of fiber-polymer interphases. In Controlled Interfaces in Composite Materials (H. Ishida ed.), Elsevier. New York, pp 87-95. [Pg.39]

Broutman L.J. (1969). Measurement of the fiber-polymer matrix interfacial strength. In Interfaces in Composites, ASTM STP 452, ASTM, Philadelphia, PA, pp. 27-41. [Pg.86]

Li, Z.F. and Nctravali, A.N. (1992). Surface modification of UHSPE fibers through allylamine plasma deposition. II. effect on fiber and fiber/epoxy interface. J. Appl. Polym. Sci. 44, 319-332. [Pg.233]

In using Eq. (6.10) to predict / , of a given composite system it is important that the said failure mechanisms all exist. If any one mechanism is apparently absent the corresponding toughness term must be excluded from the / t equation. It is also worth emphasizing that / , varies linearly with reciprocal of the frictional shear strength of the interface, i.e. l/tf, with the lower limit of (1 — Ff)/fm when if approaches infinity. This relationship has been shown to apply to many carbon fiber polymer matrix composites (CFRPs) (Harris et al., 1971 Beaumont and Phillips,... [Pg.245]


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See also in sourсe #XX -- [ Pg.160 ]




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