TuC1.1 - PHOTONIC RESONATOR STRUCTURES: TOPOLOGY IN SCATTERING, AND COMPUTING APPLICATIONS
Abstract
Abstract
We show that the scattering matrices of photonic crystal guided resonance systems can exhibit non-trivial topology, which enables robust polarization control that is broadband and immune to loss. We also discuss the application of photonic structures for analog and neuromorphic optical computing.
TuC1.2 - FULLY INTEGRATED 20 GBIT/S SILICON OPTICAL COMPUTING CHIP FOR 4-BIT FULL ADDERS
Abstract
Abstract
We demonstrate a 4-bit optical full adder in silicon photonics using microdisk modulators operating over 20 Gbit/s, which owns advantages of high speed and low power consumption when compared with electronic counterparts. It paves the way to future high-speed digital optical computing.
TuC1.3 - MULTI-OPERAND DIRECTED LOGIC-BASED ELECTRO-OPTIC GATES FOR ULTRACOMPACT OPTICAL COMPUTING
Abstract
Abstract
We propose and experimentally demonstrate a multi-operand electro-optic logic gate that allows a single gate to be controlled by several inputs simultaneously. A thorough analysis of its performance is fully implemented, which shows its potential to outperform the traditional logic gate in many aspects.
TuC1.4 - ALL-OPTICAL SWITCHING USING A III-V NANOWIRE INTEGRATED SI PHOTONIC CRYSTAL NANOCAVITY
Abstract
Abstract
We demonstrated all-optical switching using a hybrid nano-cavity with a single InP/InAsP nanowire and Si photonic crystal. The Q factor is ~25,000 in 1.3 um and the switching energy is a few hundred fJ. This is smaller than the energy of Si photonic crystal switches.