Abstract:
A binary island kind photonic crystal resonator is investigated analytically and numerically in the framework of standing wave expansion method. The photonic energy distribution and bandgap structure for the finite SiO2/SiO2 resonator with rectangular elementary cell of micron sizes are first calculated. The classification concept of resonator’s modes is proposed. It is concluded that depending on the structure three types of local states of electromagnetic field exist inside the resonator besides the transmitted standing waves: intrinsic, surface and edge states. The field distribution inside the resonator is calculated, and ways of use the island resonators in optical devices are discussed.
Description:
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