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Constructing a modulus map for linear elastic composites: The case of rigid reinforcements
Author(s) -
Pandermarakis Z. G.,
Spathis G.,
Tsamasphyros G.
Publication year - 2007
Publication title -
polymer composites
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.577
H-Index - 82
eISSN - 1548-0569
pISSN - 0272-8397
DOI - 10.1002/pc.20271
Subject(s) - modulus , materials science , finite element method , composite material , composite number , reinforcement , uniqueness , poisson's ratio , elastic modulus , phase (matter) , young's modulus , poisson distribution , mathematics , structural engineering , mathematical analysis , statistics , chemistry , organic chemistry , engineering
The validity areas in Young's modulus models of composite materials using finite element analysis (FEA) were identified. The bounds that these models hold on i.e., the proportion of phases, the modulus and Poisson's ratio of matrix and reinforcement phases, the geometry of the system, the loading conditions, the secondary effects etc., were accurately defined. Also, all critical factors of the respective models were computed and modified to describe and best approximate the “referring situation,” which was chosen to be that of FEA. In addition, applying these models to a real composite and through the appreciation of the diversions in the reference state, it is possible to determine qualitatively the total behavior of a composite material and to estimate a range of real material features such as the true intensity of dispersed‐phase interaction, the appeared imperfections and aggregates, the grade of adhesion, the existence of meso‐phase, etc. Finally, from the incoming information by this analysis and by suitably forming and structuring these models, we raise up their simplicity and their uniqueness and so it was made possible to construct a modulus map for the limitation and applying areas of all modulus models. POLYM. COMPOS., 28:593–604, 2007. © 2007 Society of Plastics Engineers