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Fiber Pushout Test: A Three-Dimensional Finite Element Computational Simulation
Author(s) -
Subodh K. Mital,
C. C. Chamis
Publication year - 1991
Publication title -
journal of composites technology and research
Language(s) - English
Resource type - Journals
eISSN - 1945-7537
pISSN - 0884-6804
DOI - 10.1520/ctr10069j
Subject(s) - materials science , finite element method , composite material , fiber , interlocking , shrinkage , composite number , interphase , modulus , structural engineering , biology , engineering , genetics
A fiber pushthrough process has been computationally simulated using a three-dimensional (3-D) finite element method. The interphase material is replaced by an anisotropic material with greatly reduced shear modulus, such that the simulation becomes linear up to the fiber pushthrough load. Such a procedure is easily implemented and is computationally very effective. It can be used to predict fiber pushthrough load for a composite system at any temperature. The average interface shear strength obtained from pushthrough load can easily be separated into its two components: one that comes from frictional stresses and the other that comes from chemical adhesion between fiber and the matrix and mechanical interlocking that develops as a result of shrinkage of the composite because of phase change during the processing. Step-by-step procedures are described to perform the computational simulation, to establish bounds on interfacial bond, and to interpret interfacial bond quality.

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