Heterostructures of photonic crystals: frequency bands and transmission coefficients

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Abstract

We present a program for the calculation of the frequency band structure of an infinite photonic crystal, and of the transmission, reflection and absorption coefficients of light by a slab of this crystal. The crystal consists of a stack of identical slices parallel to a given surface; a slice may consist of a number of different components, each of which can be either a homogeneous plate or a multilayer of spherical particles of given periodicity parallel to the surface.

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  • CDPDS: Coupled dipole method-based photonic dispersion solver

    2023, Computer Physics Communications
    Citation Excerpt :

    This method has analytically reproduced topological characteristics manifested by edge states across a bandgap [15] and nonzero topological invariants [16,17] in a fast and efficient manner. To date, several free software for photonic dispersion simulations have been developed using the plane-wave expansion method [19–21] and a multiple-scattering T-matrix method [22]. These software provide the computation of the bulk and boundary dispersions of photonic crystals but a software based on the coupled dipole method remains elusive.

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Supported by the State Scolarships Foundation (I.K.Y.), Greece.

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