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Electromagnetic modeling of periodically-structured fiber-reinforced single-layer laminate with multiple fibers missing

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Abstract

Modeling of periodically-structured, fiber-reinforced laminates with fibers missing is investigated, this applying as well to similarly disorganized photonic crystals at optical frequencies. Parallel cylindrical fibers are periodically embedded within a layer sandwiched between two half-spaces. Absent fibers destroy the periodicity. The supercell concept involving an auxiliary periodic structure provides subsidiary solutions, wherein plane-wave illumination can be analyzed with the help of the Floquet theorem, while the field response due to a line source can be calculated from the pertinent plane-wave expansion. Accuracy, computational efficacy and versatility of the above approaches are illustrated by comprehensive numerical simulations with in particular comparisons to results provided by a finite-element code, all-purpose but computationally demanding, this work seen as the first step to the localization of missing fibers in a damaged laminate and imaging thereof.

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Liu, ZC., Li, CY., Lesselier, D. et al. Electromagnetic modeling of periodically-structured fiber-reinforced single-layer laminate with multiple fibers missing. Appl. Phys. A 122, 993 (2016). https://doi.org/10.1007/s00339-016-0524-7

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  • DOI: https://doi.org/10.1007/s00339-016-0524-7

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