2d Materials Integrated Silicon Photonics
Lead Research Organisation:
University of Cambridge
Department Name: Engineering
Abstract
Optical communication has superseded copper wires in data transmission systems, significantly improving their speed, bandwidth and signal quality, and becoming the key technology for today's broadband networks. Devices based on silicon photonics technologies provide key advantages in optical communication system. This platform allows for the integration of optical waveguides, modulators, and photo-detectors within a single device, thus providing a smaller form factor, which promises to further boost internet speeds and enable the development of extremely powerful computers. The next step for enhancing device integration, operation speed and reducing cost and power consumption requires innovative approaches; the use of novel materials is one of the most promising. Two dimensional materials in particular (such as graphene) have been intensively studied in the recent years showing exceptional electrical and optical properties, that might hold the key to overcome the obstacles preventing the widespread commercialization of silicon photonics devices. The aim of this project is twofold: first to increase our fundamental understanding of the unique optoelectronics properties of two-dimensional materials and second, to experimentally demonstrate their applicability to silicon photonics technology and evaluate their performance with respect to industrial standards.
Research areas: Optical Communications; Optical Devices and subsystems; Graphene and Carbon Nanotechnology
Portfolio Themes: ICT, Manufacturing the future, Physical sciences
Research areas: Optical Communications; Optical Devices and subsystems; Graphene and Carbon Nanotechnology
Portfolio Themes: ICT, Manufacturing the future, Physical sciences
People |
ORCID iD |
Andrea Ferrari (Primary Supervisor) | |
Hannah Watson (Student) |
Publications
Asgari M
(2021)
Chip-Scalable, Room-Temperature, Zero-Bias, Graphene-Based Terahertz Detectors with Nanosecond Response Time.
in ACS nano
Calandrini E
(2023)
Near- and Far-Field Observation of Phonon Polaritons in Wafer-Scale Multilayer Hexagonal Boron Nitride Prepared by Chemical Vapor Deposition.
in Advanced materials (Deerfield Beach, Fla.)
Di Gaspare A
(2020)
Tunable, Grating-Gated, Graphene-On-Polyimide Terahertz Modulators
in Advanced Functional Materials
Di Gaspare A
(2021)
Tunable, Grating-Gated, Graphene-On-Polyimide Terahertz Modulators
Ferrari A
(2017)
(Invited) The Roadmap to Applications of Graphene and Related Materials
in ECS Meeting Abstracts
Ferrari A
(2019)
(Invited) Light Scattering and Emission from Hetero-Structures
in ECS Meeting Abstracts
Studentship Projects
Project Reference | Relationship | Related To | Start | End | Student Name |
---|---|---|---|---|---|
EP/N509103/1 | 30/09/2015 | 30/03/2022 | |||
1799076 | Studentship | EP/N509103/1 | 30/09/2016 | 29/09/2020 | Hannah Watson |
Description | Graphene Flagship |
Organisation | Chalmers University of Technology |
Department | Graphene Flagship |
Country | Sweden |
Sector | Public |
PI Contribution | My main focus has been on component level design, fabrication, and characterisation. This has been undertaken at the Cambridge Graphene Centre and has involved heavy theoretical analysis, behavioural modelling, and simulations to develop designs for electro-optic graphene-based modulators. These have been sucessfully fabricated and characterised using the cleanroom facilities and labs of the Cambridge Graphene Centre and Electrical Engineering department at the University of Cambridge. |
Collaborator Contribution | I have worked with many different partners across europe within the Graphene Flagship for further developing device designs and fabrication techniques to implemented at Cambridge Graphene Centre. Partners have also provided samples, materials, and characterisation facilites which would have previously been unavailable to me. |
Impact | Presented posters at Graphene 2018 and Graphene Week 2018 relating to device level work I have done. |
Start Year | 2016 |
Description | Nokia Bell Labs |
Organisation | Nokia Research Centre Cambridge |
Country | United Kingdom |
Sector | Private |
PI Contribution | My main focus has been on component level design, fabrication, and characterisation. This has been undertaken at the Cambridge Graphene Centre and has involved heavy theoretical analysis, behavioural modelling, and simulations to develop designs for electro-optic graphene-based modulators. These have been sucessfully fabricated and characterised using the cleanroom facilities and labs of the Cambridge Graphene Centre and Electrical Engineering department at the University of Cambridge. |
Collaborator Contribution | Although the Nokia Bell Labs team in Cambridge do not directly work on data communication applications, I have been put in touch with and visited the relevant team in the Stuttgart office. Here I can use their system level testing equipment and expertise to integrate the individual components I have been working into more complex systems. |
Impact | None yet. |
Start Year | 2016 |