One-Dimensional Photonic Serial Asymmetric Loops Structure Containing Three Defects

Abstract:

We study in this work, the occurrence of defects modes in the transmission spectrum and the band structure of a perfect photonic asymmetric serial loops structure (ASLS) utilized for narrow-band filtering. The perfect structure presents large photonic bandgaps that result from the modes of the loops resonances and the system periodicity. Besides that, the existence of defects within this perfect ASLS, whether at the segment or loop level, or both of them, causes the appearance of two, three, or four defect modes within gaps with good transmission rates and high-quality factors. These defects modes are extremely sensitive to changes in structural parameters. This system can be used to filter or guide the incoming electromagnetic waves. The interface response theory has been used to accomplish the analytical calculation. Green's function of the full system is determinated using this method. It allows us to calculate the dispersion relation and the transmission rate. Therefore, this paper can provide ideas for the design of multi-channel tunable filter using for frequency division multiplexing and microwave and signal processing.

• Periodical: Defect and Diffusion Forum (Volume 418)
• Pages: 25-37
• DOI: https://doi.org/10.4028/p-k1282y
• Online since: August 2022
• Authors: Mimoun El-Aouni*, Youssef Ben-Ali, Ilyass El Kadmiri, Driss Bria
• Keywords: Asymmetric Loops, Band Gap, Defects’ Modes, Electromagnetic Waves, Filter

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