A micro-processor-based feedback stabilization scheme for high-q, non-linear silicon resonators

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Abstract

Stabilization of silicon micro-resonators is a key requirement for their inclusion in larger photonic integrated circuits. In particular, thermal refractive index shift in non-linear applications can detune devices from their optimal working point. A cavity stabilization scheme using a micro-processor-based feedback control loop is presented based on a local thermal heater element on-chip. Using this method, a silicon B-phase shifted grating with a cavity Q-factor of 40 k is demonstrated to operate over an ambient temperature detuning range of 40°C and injection wavelength range of 1.5 nm, nearly 3 orders of magnitude greater than the resonant cavity linewidth.

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APA

Cantarella, G., & Strain, M. J. (2016). A micro-processor-based feedback stabilization scheme for high-q, non-linear silicon resonators. Applied Sciences (Switzerland), 6(11). https://doi.org/10.3390/app6110316

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