Optical wireless frontier: Design challenges of multi gigabit wireless. This project aims to improve the coverage, mobile access, miniaturisation, bandwidth and networking of optical wireless. As connected machines become the primary consumers of the Internet, technologies for wirelessly connecting devices, processors, storage and display devices at very high speeds become necessary for mission critical services and applications. Gigabit wireless access needs to overcome shortages in the radio-f ....Optical wireless frontier: Design challenges of multi gigabit wireless. This project aims to improve the coverage, mobile access, miniaturisation, bandwidth and networking of optical wireless. As connected machines become the primary consumers of the Internet, technologies for wirelessly connecting devices, processors, storage and display devices at very high speeds become necessary for mission critical services and applications. Gigabit wireless access needs to overcome shortages in the radio-frequency spectrum and provide scalable bandwidth and wider coverage. Optical wireless transmission is a real alternative to current wireless systems because its connection speed of tens of gigabits/second means it can work efficiently with wired optical networking technologies. This project is expected to lead to optical wireless technology.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE120100124
Funder
Australian Research Council
Funding Amount
$300,000.00
Summary
Coherent detection based characterisation facility for ultra broadband photonic and RF systems. The new infrastructure will allow detection of ultrahigh-speed optical and wireless signals. The facility adopts coherent detection based technologies providing superior performance in resolution, sensitivity, and bandwidth. It will play an important role in supporting research activities to accommodate phenomenal Internet growth.
Discovery Early Career Researcher Award - Grant ID: DE150100373
Funder
Australian Research Council
Funding Amount
$375,000.00
Summary
Dissect Fibre Nonlinearity in Few-mode Fibre Transmission. The exponential growth of internet traffic poses great challenges in the physical layer. This project aims to explore the fibre nonlinearity impact on few-mode fibre transmission through a mixture of theoretical analysis, computer simulation, and experimental demonstration. The scope of the research encompasses study of few-mode fibre nonlinear propagation in dispersive fibre optic channels, and advanced digital signal processing for fib ....Dissect Fibre Nonlinearity in Few-mode Fibre Transmission. The exponential growth of internet traffic poses great challenges in the physical layer. This project aims to explore the fibre nonlinearity impact on few-mode fibre transmission through a mixture of theoretical analysis, computer simulation, and experimental demonstration. The scope of the research encompasses study of few-mode fibre nonlinear propagation in dispersive fibre optic channels, and advanced digital signal processing for fibre nonlinearity characterisation. Successful execution of the project will provide valuable understanding of nonlinearity of few-mode fibre transmission.Read moreRead less
High-density mobile fronthaul optical interconnects using few-mode fibers. This project aims to develop a prototype of high-density optical interconnects for mobile fronthaul systems using few-mode transmission techniques. This is required to meet the high bandwidth demand from 5G mobile standard, which is to be rolled out worldwide in the near future. The project expects to advance knowledge of space-division-multiplexing techniques using cost-effective direct detection. The methodologies and t ....High-density mobile fronthaul optical interconnects using few-mode fibers. This project aims to develop a prototype of high-density optical interconnects for mobile fronthaul systems using few-mode transmission techniques. This is required to meet the high bandwidth demand from 5G mobile standard, which is to be rolled out worldwide in the near future. The project expects to advance knowledge of space-division-multiplexing techniques using cost-effective direct detection. The methodologies and technologies developed through this project will enhance the competitiveness of the Australian’s telecommunication sector, especially on the deployment of 5G services to the broader community. This technology will be critical to Australia’s digital economy, from supporting virtual reality to autonomous driving and will provide significant benefits to the Australian optical communication industry.
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Ultrahigh-speed optical transport for sustaining the internet growth. Our society has entered an information era centred around the Internet. This project aims to study novel transport technologies to construct optical backbone networks supporting the Internet traffic. The project will keep Australia at the leading edge of exciting Terabit technologies as well as create commercial opportunities in Australia.
Few-mode transmission: harnessing the capacity of optical fibres. Optical fibres are widely deployed for carrying internet traffic. This project aims to study breakthrough technologies to dramatically increase the capacity of optical fibres. The project will help maintain Australia at the leading edge of the information age as well as providing exciting opportunities for training research associates and students.
Self-coherent detection for data centre. This project aims to explore the architecture of terabit data transport using self-coherent detection that addresses the tight constraints of power, space and cost in data centres. The project expects to create new knowledge in coherent detection based on optical equalisation rather than conventional power-hungry electronic equalisation. Expected outcomes of this project include advanced architecture of polarisation effect equalisers and all-optical equal ....Self-coherent detection for data centre. This project aims to explore the architecture of terabit data transport using self-coherent detection that addresses the tight constraints of power, space and cost in data centres. The project expects to create new knowledge in coherent detection based on optical equalisation rather than conventional power-hungry electronic equalisation. Expected outcomes of this project include advanced architecture of polarisation effect equalisers and all-optical equalisation algorithms as well as enhanced international collaboration with top experts in optical communications. The outcomes will contribute to maintaining Australia’s high reputation in the ICT arena.Read moreRead less
The road to Terabit Era: the optical transport perspective. The Internet has been playing an increasingly critical role in today's society. The project aims to look into novel approaches to construct the physical layer of optical internet networks. The project will keep Australia in the leading edge of exciting Terabit transport technologies as well as create many commercial opportunities in Australia.
Australian Laureate Fellowships - Grant ID: FL130100041
Funder
Australian Research Council
Funding Amount
$3,094,000.00
Summary
The electro-photonic interchange: a new green platform for communications signal processing. This project will deliver the science for a new generation of green optical networks, by identifying optimum combinations of electronic and photonic signal processing to solve fundamental data bottlenecks. This project will implement these technologies in powerful electro-photonic chips, upon which superior energy-efficient internet switches can be built.
Fibre-based Small Cell Backhauling for Next Generation Wireless Networks. With an unprecedented 11-fold growth in mobile data services expected over the next five years, wireless networks are facing a fundamental challenge in supporting this enormous traffic. In meeting this challenge, next generation wireless networks need to offer services over smaller cells with a significantly larger number of base-stations, thus allowing high capacity connection to the global internet (backhaul). The aim of ....Fibre-based Small Cell Backhauling for Next Generation Wireless Networks. With an unprecedented 11-fold growth in mobile data services expected over the next five years, wireless networks are facing a fundamental challenge in supporting this enormous traffic. In meeting this challenge, next generation wireless networks need to offer services over smaller cells with a significantly larger number of base-stations, thus allowing high capacity connection to the global internet (backhaul). The aim of this project is to formulate optimisation methodologies for a sustainable energy-efficient small cell backhaul infrastructure. Through integration with the optical fibre infrastructure, the research will address network planning, design, and optimisation in terms of performance, cost-effectiveness, and energy efficiency.Read moreRead less