Experimental demonstration of a 24-port packaged multi-microring network-on-chip in silicon photonic platform
Author(s) -
Fabrizio Gambini,
Paolo Pintus,
S. Faralli,
Marco Chiesa,
Giovan Battista Preve,
Isabella Cerutti,
Nicola Andriolli
Publication year - 2017
Publication title -
optics express
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 1.394
H-Index - 271
ISSN - 1094-4087
DOI - 10.1364/oe.25.022004
Subject(s) - resonator , port (circuit theory) , photonics , optics , chip , bit error rate , power (physics) , wavelength division multiplexing , silicon photonics , optical communication , wavelength , physics , computer science , optoelectronics , telecommunications , electronic engineering , engineering , channel (broadcasting) , quantum mechanics
A 24-port packaged multi-microring optical network-on-chip has been tested for simultaneous co- and counter-propagating transmissions at the same wavelength at 10 Gbps. In the co-propagating scenario communications up to five hops with one interfering signal have been tested, together with transmissions impaired by up to three interfering signals. In the counter-propagating scenario the device performance has been investigated exploiting the ring resonators in both shared-source and shared-destination configurations. The spectral characterization is in good agreement with the theoretical results. Bit-error-rate measurements indicate power penalties at BER=10 -9 limited to (i) 0.5 dB in the co-propagating scenarios independently from the number of interfering transmissions, (ii) 0.8 dB in the counter-propagating scenario with shared-source configuration, and (iii) 2 dB in the counter-propagating scenario with shared-destination configuration.
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