The CLIPP technology enabling non-invasive on-chip monitoring of the light intensity is exploited to realize feedback controlled schemes for the tuning, switching, and locking of photonic integrated circuits. Applications to photonic architectures based on silicon photonic microring resonators and Mach-Zehnder Interferometers are presented
The complexity scaling of silicon photonics circuits is raising novel needs related to control. Reco...
We demonstrate feedback-controlled reconfiguration of complex silicon photonic architectures assiste...
Advanced technologies to implement on-chip monitoring and feedback control operations are required t...
The CLIPP technology enabling non-invasive on-chip monitoring of the light intensity is exploited to...
We demonstrate non-invasive light observation in silicon photonics with a ContactLess Integrated Pho...
We demonstrate feedback control of silicon microrings by monitoring the light inside the resonators ...
The complexity scaling of silicon photonics circuits is raising novel needs related to control. Reco...
We demonstrate feedback-controlled reconfiguration of complex silicon photonic architectures assiste...
Advanced technologies to implement on-chip monitoring and feedback control operations are required t...
The CLIPP technology enabling non-invasive on-chip monitoring of the light intensity is exploited to...
We demonstrate non-invasive light observation in silicon photonics with a ContactLess Integrated Pho...
We demonstrate feedback control of silicon microrings by monitoring the light inside the resonators ...
The complexity scaling of silicon photonics circuits is raising novel needs related to control. Reco...
We demonstrate feedback-controlled reconfiguration of complex silicon photonic architectures assiste...
Advanced technologies to implement on-chip monitoring and feedback control operations are required t...