Polymer optical fibres with controlled molecular orientation for photonic applications. The objective of the proposed research is to boost the advantage of Australian scientists and engineers working in the field of photonics by investigating new physical principles and new ways of fabricating specialty plastic optical fibres. Such fibres can be used in optical devices, to improve transmission and processing of signals in data communications, for improving efficient operation of power industry, ....Polymer optical fibres with controlled molecular orientation for photonic applications. The objective of the proposed research is to boost the advantage of Australian scientists and engineers working in the field of photonics by investigating new physical principles and new ways of fabricating specialty plastic optical fibres. Such fibres can be used in optical devices, to improve transmission and processing of signals in data communications, for improving efficient operation of power industry, in biophotonics.
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Photonic routing with liquid crystals. Liquid crystals became a household item but their unequaled nonlocal optical properties are much less known and studied, although the breathtaking prospects of their future applications in photonics inspire many experts around the world. We will bring to Australia the state of the art research approach, theoretical and experimental, aiming to uncover and realize the potential of long range interaction between laser light and nonlocal liquid crystals for fut ....Photonic routing with liquid crystals. Liquid crystals became a household item but their unequaled nonlocal optical properties are much less known and studied, although the breathtaking prospects of their future applications in photonics inspire many experts around the world. We will bring to Australia the state of the art research approach, theoretical and experimental, aiming to uncover and realize the potential of long range interaction between laser light and nonlocal liquid crystals for futuristic all-optical devices. This project will promote and enhance the rapid development of photonics in Australia, as well as deliver foremost practical expertise and outstanding training of young researchers.Read moreRead less
Interactive video on-demand for e-learning. Life long learning has become an integral part of many people's career development. Interactive video on-demand (VoD) can be used to deliver video learning materials to students when they choose to study. The aim of this project is to investigate the research issues on designing scalable interactive VoD for e-learning. Comparing with previous work in the area, this project takes a holistic approach, which includes multicast, distributed smart caches an ....Interactive video on-demand for e-learning. Life long learning has become an integral part of many people's career development. Interactive video on-demand (VoD) can be used to deliver video learning materials to students when they choose to study. The aim of this project is to investigate the research issues on designing scalable interactive VoD for e-learning. Comparing with previous work in the area, this project takes a holistic approach, which includes multicast, distributed smart caches and video coding as its building blocks. Huazhong University, who is active in e-learning research, provides an ideal location to trial interactive VoD techniques, due to their large student population. Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE150100924
Funder
Australian Research Council
Funding Amount
$375,000.00
Summary
Integrated Interconnects in Data Centres and High-Performance Computing. High-speed interconnects are needed to link, transmit, retrieve, and process intensive data in a time- and energy-efficient and cost-effective manner in data centres and high-performance computing. This project aims to investigate high-speed, integrated interconnects, including novel integrated devices and transceivers on silicon platforms, flexible subsystems and overall system architecture. The research outcomes will be b ....Integrated Interconnects in Data Centres and High-Performance Computing. High-speed interconnects are needed to link, transmit, retrieve, and process intensive data in a time- and energy-efficient and cost-effective manner in data centres and high-performance computing. This project aims to investigate high-speed, integrated interconnects, including novel integrated devices and transceivers on silicon platforms, flexible subsystems and overall system architecture. The research outcomes will be beneficial to a number of industries including integrated chip and circuit design and fabrication, integrated systems, and network infrastructures, and will enable faster platforms for cloud computing, sensing, signal processing, and computational health.Read moreRead less
Unified digital networking for wireless and optical access. The provision of broadband services is a high priority for the Australian government as evidenced by the various initiatives around Australia. The merging of backbone infrastructures for access environment will overcome unnecessary cost of maintaining and upgrading two separate networks for wired and wireless applications. The merged infrastructure will potentially provide inexpensive and cost-effective solutions for truly broadband ser ....Unified digital networking for wireless and optical access. The provision of broadband services is a high priority for the Australian government as evidenced by the various initiatives around Australia. The merging of backbone infrastructures for access environment will overcome unnecessary cost of maintaining and upgrading two separate networks for wired and wireless applications. The merged infrastructure will potentially provide inexpensive and cost-effective solutions for truly broadband services with a choice of wired or wireless connectivity to customers and will remove the rural-urban broadband divide that has been challenging Australia. The outcomes of this project can lead to new business ventures and will further strengthen the telecommunication industry.Read moreRead less
High-speed bidirectional optical interconnects for board-to-board communications. The project will contribute directly to Australia's participation in various ICT industries through the development of innovative solutions and will increase the knowledge and skills base in silicon-photonics. The development of the proposed board-to-board high-speed optical interconnect prototypes will result in R&D outcomes well-matched to the needs and interests of Australian companies; this project will assist ....High-speed bidirectional optical interconnects for board-to-board communications. The project will contribute directly to Australia's participation in various ICT industries through the development of innovative solutions and will increase the knowledge and skills base in silicon-photonics. The development of the proposed board-to-board high-speed optical interconnect prototypes will result in R&D outcomes well-matched to the needs and interests of Australian companies; this project will assist Australia to capitalise on new technology and to become a significant player in the next ICT boom. This project will put Australia at the cutting edge of high-speed interconnect technology and will generate income through licensing the technology and the establishment of spin-off opportunities in both Australia and off-shore.Read moreRead less
Australian Laureate Fellowships - Grant ID: FL160100032
Funder
Australian Research Council
Funding Amount
$2,527,475.00
Summary
Ultralow latency wireless systems. Ultralow latency wireless systems. This project aims to develop theories and practical methods to design wireless communication systems for future generations of internet services. Emerging smart environments and infrastructure could solve major problems facing the world today, by saving energy, reducing pollution, improving health and increasing road safety. However, scientists to date do not know how to build wireless networks with almost zero latency and ult ....Ultralow latency wireless systems. Ultralow latency wireless systems. This project aims to develop theories and practical methods to design wireless communication systems for future generations of internet services. Emerging smart environments and infrastructure could solve major problems facing the world today, by saving energy, reducing pollution, improving health and increasing road safety. However, scientists to date do not know how to build wireless networks with almost zero latency and ultrahigh reliability, needed for machine-to-machine communications. An expected outcome of this project is new criteria and methodologies to design such wireless systems, which would affect future wireless systems and grids.Read moreRead less
Photonic Antenna: Nested multi-band patch antenna and arrayed photonic interconnect. This project aims to investigate the design of a broadband ?photonic antenna? for airborne radar warning and electronic countermeasure systems. The project will investigate the development of a suite of printed antennas that cover bands in the range from 2-40 GHz realised on a single substrate. Nesting these antennas to reduce system size, and integration of this module with a custom optical modulator array and ....Photonic Antenna: Nested multi-band patch antenna and arrayed photonic interconnect. This project aims to investigate the design of a broadband ?photonic antenna? for airborne radar warning and electronic countermeasure systems. The project will investigate the development of a suite of printed antennas that cover bands in the range from 2-40 GHz realised on a single substrate. Nesting these antennas to reduce system size, and integration of this module with a custom optical modulator array and RF signal combiner will be investigated. The resulting broadband antenna suite with photonic interconnect will require minimal fabrication and packaging resources, and will thus be an economically viable photonic solution for practical defence systems.Read moreRead less
Fabrication and design of spun and chiral microstructured fibres. Novel optical fibre devices and especially sensors have established and growing markets in sectors as diverse as medical, aerospace & defence, energy, scientific and process control. This project will build on our existing success in developing microstructured polymer optical fibres (mPOF), and create major new opportunities, both in fundamental science and in applications that could be commercialised. Australia is currently leadi ....Fabrication and design of spun and chiral microstructured fibres. Novel optical fibre devices and especially sensors have established and growing markets in sectors as diverse as medical, aerospace & defence, energy, scientific and process control. This project will build on our existing success in developing microstructured polymer optical fibres (mPOF), and create major new opportunities, both in fundamental science and in applications that could be commercialised. Australia is currently leading the world in mPOF. This project builds on these past successes but moves beyond telecommunications into biophotonics with potential applications in magnetic field sensors, biological sensors, optical tweezers, polarisation emulators and new types of linear and nonlinear modes. Read moreRead less
Next-Generation Optical Orthogonal frequency-division multiplexing (OFDM) for long-haul telecommunications: building on recent research and commercialisation success. The provision of Broadband Internet services to the home also requires extremely-fast 'backbone' connections between cities to carry the additional traffic demands.
In a previous project funded by the ARC, Monash researchers developed Optical-Orthogonal Frequency Division Multiplexing (OFDM) technology to increase the information- ....Next-Generation Optical Orthogonal frequency-division multiplexing (OFDM) for long-haul telecommunications: building on recent research and commercialisation success. The provision of Broadband Internet services to the home also requires extremely-fast 'backbone' connections between cities to carry the additional traffic demands.
In a previous project funded by the ARC, Monash researchers developed Optical-Orthogonal Frequency Division Multiplexing (OFDM) technology to increase the information-carrying capacity of optical fibers simply by plugging in new circuit boards at exchanges. This is now being commercialised by a new Australian company, to considerable international acclaim. This project aims to provide the next generation of this technology, which will support even faster internet and will ensure the long-term future of Australian telecommunications manufacturing.
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