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Normal Mode Stacking Coefficients

The implications of Remark 5.5 are summarized in Table 5.2 for the stacking of material phases transverse to the fiber direction with respect to fields associated with the normal modes. While the macroscopic mechanical and electrostatic fields carry the usual denominations, the association with the individual phases is indicated by the superscripts / and m for fields in the fiber and matrix phase respectively. The normal mode constitutive relation of Eq. (4.19) [Pg.83]

Direction Stress/Ei. Fiux Density Strain/Ei. Eieid Strength [Pg.84]

Furthermore, those mechanical and electrostatic fields that are assumed to be a weighted average, as stated in Table 5.2, may be arranged collectively. Then the vectors of the phase specific fields can be replaced by substitution of Eqs. (5.18a) and (5.18b), respectively  [Pg.84]

These still partially inverted macroscopic constitutive relations with the weighted average of material properties of both phases comprised in the matrices Fi and F2, may be reverted to the original form of the normal mode constitutive relations  [Pg.85]

The coefficients of the constitutive matrices and E, as of Eq. (4.19), thus stem from the matrices Fi and F2, respectively. They can be derived from each other by interchanging the indices 1 and 2 of directional fiber fractions as well as constitutive coefficients of fiber and matrix material again indicated by the superscripts / and m. So the presentation of these coefficients can be confined to the matrix E as a result of the stacking of constituents in the ei-direction. The entries of the principal diagonal contained therein are [Pg.85]


See other pages where Normal Mode Stacking Coefficients is mentioned: [Pg.83]    [Pg.83]    [Pg.84]   


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