Z. Ying (US) University of Texas at Austin
University of Texas at AustinAuthor Of 3 Presentations
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.
WP11 - POWER AND ACCURACY CO-OPTIMIZATION OF AN OPTICAL FULL ADDER VIA OPTIMIZATION ALGORITHMS
Abstract
Abstract
In this paper, we propose methods to reduce modulation depth requirements of optical modulators in an optical full adder while still maintain the accuracy by optimizing parameters using algorithms. Results show that it is capable of reducing power consumption effectively.
Presenter Of 2 Presentations
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.