journal article·2011-07-01Open access

Finite element homogenization technique for the characterization ofd15shear piezoelectric macro-fibre composites

M A Trindade, A Benjeddou

Smart Materials and Structures· Volume 20· Issue 7

Abstract

A finite element homogenization method for a shear actuated d(15) macro-fibre composite (MFC) made of seven layers (Kapton, acrylic, electrode, piezoceramic fibre and epoxy composite, electrode, acrylic, Kapton) is proposed and used for the characterization of its effective material properties. The methodology is first validated for the MFC active layer only, made of piezoceramic fibre and epoxy, through comparison with previously published analytical results. Then, the methodology is applied to the seven-layer MFC. It is shown that the packaging reduces significantly the shear stiffness of the piezoceramic material and, thus, leads to significantly smaller effective electromechanical coupling coefficient k(15) and piezoelectric stress constant e(15) when compared to the piezoceramic fibre properties. However, it is found that the piezoelectric charge constant d(15) is less affected by the softer layers required by the MFC packaging.
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Research context

OpenAlex topics: Composite Material Mechanics · Composite Structure Analysis and Optimization · Acoustic Wave Phenomena Research

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