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Abstract
In order to improve the performance of optical wavelength-selective switches based on double micro-ring resonators, an asymmetric intra-step-barrier coupled double strained quantum wells (AICD-SQWs) structure is utilized as the active light guiding medium. The AICD-SQW active layer has advantages, such as large change range in absorption coefficient, high extinction ratio, large Stark shift and very low insertion. For predicting the switching characteristics of double ring resonators structure, the absorption coefficient and real refractive index changes of the AICD-SQW active layer are calculated for different applied electric fields for TE input light polarization. Simulation results show that switching characteristics strongly depend on changes in absorption coefficient and real refractive index of active layer. In addition, isolations of 37.44 dB and 26.84 dB are realized between drop and through ports, when drop and through ports are ON and OFF, respectively, and vice versa.
Keywords
Applied Electric Field
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Resonant Wavelength
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Switching Characteristic
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High Extinction Ratio
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Drop Port
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Kambiz Abedi.
High-performance optical wavelength-selective switches based on double ring resonators.
Optoelectronics Letters, 2013, 9(3): 185-188 DOI:10.1007/s11801-013-3019-1
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