UK Silicon Photonics
Lead Research Organisation:
University of Surrey
Department Name: Advanced Technology Institute
Abstract
Silicon Photonics is a field that has seen rapid growth and dramatic changes in the past 5 years. According to the MIT Communications Technology Roadmap, which aims to establish a common architecture platform across market sectors with a potential $20B in annual revenue, silicon photonics is among the top ten emerging technologies. This has in part been a consequence of the recent involvement of large semiconductor companies in the USA such as Intel and IBM, who have realised the enormous potential of the technology, as well as large investment in the field by DARPA in the USA under the Electronic and Photonic Integrated Circuit (EPIC) initiative. Significant investment in the technology has also followed in Japan, Korea, and to a lesser extent in the European Union (IMEC and LETI). The technology offers an opportunity to revolutionise a range of application areas by providing excellent performance at moderate cost due primarily to the fact that silicon is a thoroughly studied material, and unsurpassed in quality of fabrication with very high yield due to decades of investment from the microelectronics industry. The proposed work is a collaboration between 5 UK Universities (Surrey, St. Andrews, Leeds, Warwick and Southampton) with input from the industrial sector both in the UK and the USA. We will target primarily the interconnect applications, as they are receiving the most attention worldwide and have the largest potential for wealth creation, based on the scalability of silicon-based processes. However, we will ensure that our approach is more broadly applicable to other applications. This can be achieved by targeting device functions that are generic, and introducing specificity only when a particular application is targeted. The generic device functions we envisage are as follows: Optical modulation; coupling from fibre to sub-micron silicon waveguides; interfacing of optical signals within sub micron waveguides; optical filtering; optical/electronic integration; optical detection; optical amplification. In each of these areas we propose to design, fabricate, and test devices that will improve the current state of the art. Subsequently we will integrate these optical devices with electronics to further improve the state of the art in optical/electronic integration in silicon.We have included in our list of objectives, benchmark targets for each of our proposed devices to give a clear and unequivocal statement of ambition and intent.We believe we have assembled an excellent consortium to deliver the proposed work, and to enable the UK to compete on an international level. The combination of skills and expertise is unique in the UK and entirely complementary within the consortium. Further, each member of the consortium is recognised as a leading international researcher in their field.The results of this work have the potential to have very significant impact to wealth creation opportunities within the UK and around the world. For example emerging applications such as optical interconnect, both intra-chip, and inter-chip, as well as board to board and rack to rack, and Fibre To The Home for internet and other large bandwidth applications, will require highly cost effective and mass production solutions. Silicon Photonics is a seen as a leading candidate technology in these application areas if suitable performance can be achieved.
Publications


A Gutierrez (Author)
(2012)
Silicon-Based Electro-Optic Modulators for Linear and Nonlinear radio-over-Fibre Applications

A Gutierrez (Author)
(2012)
A silicon slow light-based photonic mixer for microwave-frequency conversion applications

Aamer M
(2013)
10 Gbit/s error-free DPSK modulation using a push-pull dual-drive silicon modulator
in Optics Communications

Blanco-Redondo A
(2016)
Erratum: Pure-quartic solitons
in Nature Communications

Blanco-Redondo A
(2014)
Observation of soliton compression in silicon photonic crystals.
in Nature communications

Blanco-Redondo A
(2016)
Pure-quartic solitons.
in Nature communications

Blanco-Redondo A
(2014)
Controlling free-carrier temporal effects in silicon by dispersion engineering
in Optica

Blanco-Redondo A
(2015)
Pure-Quartic Solitons
Related Projects
Project Reference | Relationship | Related To | Start | End | Award Value |
---|---|---|---|---|---|
EP/F001428/1 | 24/06/2008 | 30/03/2012 | £2,093,553 | ||
EP/F001428/2 | Transfer | EP/F001428/1 | 31/03/2012 | 31/12/2013 | £806,545 |
Description | This grant was continued when the PI and his group transferred to the University of Southampton. Therefore additional details can be found under grant listing EP/F001428/2 |
Exploitation Route | continued in the transferred grant |
Sectors | Digital/Communication/Information Technologies (including Software) Electronics |
URL | http://sotonfab.co.uk/UKSP/index.html |
Description | This grant preceded EP/F0001428/2, which was initiated when the PI and his research group moved to Southampton University in 2012. The outcomes are captured in that grant submission. Note that a recent change has been made to both awards in that 2 patents originating from them are in the process of being licenced to US start-up company Pointcloud Inc. |
Sector | Digital/Communication/Information Technologies (including Software),Electronics |
Impact Types | Economic |
Description | Horizon 2020: PICTURE |
Amount | € 3,924,533 (EUR) |
Funding ID | 780930 |
Organisation | European Union |
Sector | Public |
Country | European Union (EU) |
Start | 01/2018 |
End | 02/2022 |
Description | Industry Funding |
Amount | £380,000 (GBP) |
Organisation | Huawei Technologies |
Sector | Private |
Country | China |
Start | 07/2015 |
End | 02/2017 |
Description | National Hub in High Value Photonic Manufacturing |
Amount | £10,220,725 (GBP) |
Funding ID | EP/N00762X/1 |
Organisation | Engineering and Physical Sciences Research Council (EPSRC) |
Sector | Public |
Country | United Kingdom |
Start | 01/2016 |
End | 12/2022 |
Description | Prosperity Partnership |
Amount | £4,800,000 (GBP) |
Funding ID | EP/R003076/1 |
Organisation | Engineering and Physical Sciences Research Council (EPSRC) |
Sector | Public |
Country | United Kingdom |
Start | 11/2017 |
End | 10/2022 |
Title | ERASABLE ION IMPLANTED OPTICAL COUPLERS |
Description | Erasable ion implanted optical couplers are described. In one example a method includes implanting ions into a substrate to form a grating in a waveguide of an optical device coupling optical signals into and out of the waveguide and through the grating, and annealing the substrate to remove the grating after coupling optical signals through the waveguide. |
IP Reference | WO2011142913 |
Protection | Patent granted |
Year Protection Granted | 2011 |
Licensed | No |
Impact | additional research funding |
Title | Electro-optic device |
Description | An electro - optic device (110), comprising a layer of light - carrying material; and a rib (121), projecting from the layer of light - carrying material, for guiding optical signals propagating through the device (110). The layer of light - carrying material comprises a first doped region (118) of a first type extending into the rib, and a second doped region (121) of a second, different type extending into the rib such that a pn junction is formed within the rib (121). The pn junction extends substantially parallel to at least two contiguous faces of the rib (121), resulting in a more efficient device. In addition, a self-aligned fabrication process can be used in order to simplify the fabrication process and increase reliability and yield. |
IP Reference | GB2490850 |
Protection | Patent granted |
Year Protection Granted | 2012 |
Licensed | No |
Impact | Additional research funding. As of February 2018 we are in discussions with a company regarding licencing of this patent |
Title | Electro-optic device |
Description | An electro-optic device 10, comprising an insulating layer 14 and a layer of light-carrying material adjacent the Insulating layer. The layer of light-carrying material, such as silicon, comprises a first doped region 18 of a first type and a second doped region 20 of a second, different type abutting the first doped region to form a pn junction. The first doped region has a first thickness at the junction, and the second doped region has a second thickness at the junction, the first thickness being greater than the second thickness, defining a waveguide rib 21 in the first doped region for propagating optical signals. Since the position of the junction coincides with the sidewall of the waveguide rib a self-aligned process can be used In order to simplify the fabrication process and increase yield. |
IP Reference | GB2477131 |
Protection | Patent granted |
Year Protection Granted | 2011 |
Licensed | No |
Impact | Additional research funding |
Title | Electro-optic modulator with asymmetric electrode spacing |
Description | The present invention provides an electro-optic modulator and an optical communication system in which a wider signal electrode may be used without affecting the characteristic impedance of the device or the efficiency of the optical modulation. In embodiments of the invention, asymmetric coplanar electrodes are provided such that the gap Loptimal between the signal electrode 112 and one reference electrode 114 may be optimized for the optical waveguide and the semiconductor section surrounding it, and the gap Ltuned between the signal electrode 112 and the other reference electrode 116 may be optimized for a particular characteristic impedance. Such that the gaps Loptimal and Ltuned are not of equal width. |
IP Reference | GB2493690 |
Protection | Patent granted |
Year Protection Granted | 2013 |
Licensed | No |
Impact | Additionally research funding |
Title | Erasable Ion Implanted Optical Couplers |
Description | Erasable ion implanted optical couplers are described. In one example a method includes implanting ions into a substrate to form a grating in a waveguide of an optical device coupling optical signals into and out of the waveguide and through the grating, and annealing the substrate to remove the grating after coupling optical signals through the waveguide. |
IP Reference | US2011274393 |
Protection | Patent granted |
Year Protection Granted | 2011 |
Licensed | No |
Impact | Additional research funding |
Description | Dr Stevan Stankovic and Mr Nathan Soper were speakers at the Science and Engineering Festival 2016, part of British Science Week |
Form Of Engagement Activity | Participation in an activity, workshop or similar |
Part Of Official Scheme? | No |
Geographic Reach | National |
Primary Audience | Public/other audiences |
Results and Impact | General Public invited to see the technology of Southampton University. The University of Southampton opened its doors to thousands of people for its biggest outreach event of the year, Science and Engineering Festival 2016, part of British Science Week. Amongst the huge range of activities, tours and shows on offer was the opportunity to see inside the state-of-the-art Zepler Institute Cleanroom Complex, home to the best set of nanoelectronics and photonics fabrication capabilities in the UK. |
Year(s) Of Engagement Activity | 2016 |
URL | http://www.zeplerinstitute.ac.uk/news/4858 |
Description | Outreach to community. Mr Nathan Soper (PhD student).5. Speaker at Pint of Science Southampton,RHS Flower Show, Student Outreach programmes, and Southampton Science and Engineering day. |
Form Of Engagement Activity | A talk or presentation |
Part Of Official Scheme? | No |
Geographic Reach | Local |
Primary Audience | Public/other audiences |
Results and Impact | 1. 2016 Photonics Day at the University for year 8-9 children. 2. 2015 RHS Flower Show Tatton Park - which won a SEPnet Public engagement award. 3. Science and Engineering Day 2016 4. Numerous events with 'Lightwave' the ORC's student outreach program, as described in the original proposal. 5. Speaker at Pint of Science Southampton, in which scientists and engineers engage with the public in a relaxed environment, typically a pub, to describe their research work and its impact. |
Year(s) Of Engagement Activity | 2015,2016,2017 |