Ultra-sensitivity through resonances in photonic bandgap fibres. The project will develop innovative biochemical sensors with extreme sensitivity using recently discovered physical processes in novel holey optical fibres. These sensors will be able to detect biological molecules, toxins or dangerous chemicals in minute concentrations, in very small sample sizes. The sensors can be mass-produced cheaply with current fabrication facilities within Australia, enabling their widespread use for water ....Ultra-sensitivity through resonances in photonic bandgap fibres. The project will develop innovative biochemical sensors with extreme sensitivity using recently discovered physical processes in novel holey optical fibres. These sensors will be able to detect biological molecules, toxins or dangerous chemicals in minute concentrations, in very small sample sizes. The sensors can be mass-produced cheaply with current fabrication facilities within Australia, enabling their widespread use for water quality monitoring, environmental monitoring, threat detection, and rapid and reliable diagnosis in medicine.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0775562
Funder
Australian Research Council
Funding Amount
$500,000.00
Summary
The Melbourne Nanofabrication Facility. Australia is desperately short of facilities for actual fabrication, prototyping and construction of advanced micromechanical and nanoscale systems. This is impeding both academic researchers and industrial developers in the materials, optics and biotechnological industries. The proposed instrument would complete the development of Australia's newest high resolution microscopy centre and enable a wide range of users to image, measure, build and design comp ....The Melbourne Nanofabrication Facility. Australia is desperately short of facilities for actual fabrication, prototyping and construction of advanced micromechanical and nanoscale systems. This is impeding both academic researchers and industrial developers in the materials, optics and biotechnological industries. The proposed instrument would complete the development of Australia's newest high resolution microscopy centre and enable a wide range of users to image, measure, build and design complex nanostructures at the atomic level and upwards. Read moreRead less
Control of Protein Attachment and its Optical Detection. Protein array technologies have applications in the rapid diagnosis of disease. Biosensors can detect traces of biohazards. Before widespread implementation of these technologies can occur however, a rapid, sensitive and convenient readout method for the control and readout of attachment of proteins to antibodies is needed. I will use electric fields, combined with array imaging at surface plasmon resonance to achieve this aim. This protei ....Control of Protein Attachment and its Optical Detection. Protein array technologies have applications in the rapid diagnosis of disease. Biosensors can detect traces of biohazards. Before widespread implementation of these technologies can occur however, a rapid, sensitive and convenient readout method for the control and readout of attachment of proteins to antibodies is needed. I will use electric fields, combined with array imaging at surface plasmon resonance to achieve this aim. This protein diagnostic array technology will enable accurate and rapid diagnosis of disease, generating savings on health costs and improving public health. Manufacture in Australia will bring further economic benefits.Read moreRead less
Light-matter interactions using optical fibres. This program will allow Australia to build on established excellence in photonics to extend the impact of optical fibres beyond telecommunications to applications throughout the sciences. Pioneering work on materials and structures will form a platform technology enabling innovations in areas as diverse as water quality monitoring and corrosion detection. In addition, new optical fibres will be developed for the needs of the Australian Defence Forc ....Light-matter interactions using optical fibres. This program will allow Australia to build on established excellence in photonics to extend the impact of optical fibres beyond telecommunications to applications throughout the sciences. Pioneering work on materials and structures will form a platform technology enabling innovations in areas as diverse as water quality monitoring and corrosion detection. In addition, new optical fibres will be developed for the needs of the Australian Defence Force and associated industries. Fibre-based approaches to problems in biology will ultimately lead to an improved understanding of molecular structures and new tools for manipulating biomolecules.Read moreRead less
Quantum Nanoscience. This project will deliver a new Australian capability in the core nanotechnology of quantum electromechanical systems. Nanotechnology is a suite of techniques and processes to create new materials and devices through complex processing of constituents at the nanoscale and, in the case of quantum electromechanical systems, even with moving parts. At the nanoscale, quantum principles apply. New nano-fabrication methods are now available to build nano-electromechanical systems ....Quantum Nanoscience. This project will deliver a new Australian capability in the core nanotechnology of quantum electromechanical systems. Nanotechnology is a suite of techniques and processes to create new materials and devices through complex processing of constituents at the nanoscale and, in the case of quantum electromechanical systems, even with moving parts. At the nanoscale, quantum principles apply. New nano-fabrication methods are now available to build nano-electromechanical systems (NEMS), integrated with electronics and nano optics and cooled into the quantum regime. Quantum electromechanical systems (QEMS) enable new sensors with ultimate sensitivity limited only by the Heisenberg uncertainty principle, with applications in photonics, metrology and bio molecular imaging.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0668490
Funder
Australian Research Council
Funding Amount
$207,000.00
Summary
Ultra-high speed optical transmission test-bed for testing next generation photonic devices. This test facility will enable Australian researchers to validate optical technologies that are crucial for the development and deployment of ultrahigh speed optical networks in Australia. These next generation networks will make broadband internet connectivity more widespread and affordable for individuals and business. They provide the backbone for long haul, ultrahigh speed data transmission that link ....Ultra-high speed optical transmission test-bed for testing next generation photonic devices. This test facility will enable Australian researchers to validate optical technologies that are crucial for the development and deployment of ultrahigh speed optical networks in Australia. These next generation networks will make broadband internet connectivity more widespread and affordable for individuals and business. They provide the backbone for long haul, ultrahigh speed data transmission that link regional and urban communities within Australia and with the rest of the world, and enable a range of video on demand services including e-meetings, virtual classrooms and remote medical consultations. Demand for these services will drive new business opportunities for the Australian ICT sector.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0347140
Funder
Australian Research Council
Funding Amount
$208,000.00
Summary
Picosecond optical probing and characterization of infrared and visible devices. The facility consists of a laser to generate short infrared pulses, and an oscilloscope and detectors to measure such pulses. It will be used to characterize and investigate a new generation of novel optical fibre devices and microstructures, which are to form the basis of the next generation of telecommunications systems, and also novel and unique laser types. The research and development of all of these devices ar ....Picosecond optical probing and characterization of infrared and visible devices. The facility consists of a laser to generate short infrared pulses, and an oscilloscope and detectors to measure such pulses. It will be used to characterize and investigate a new generation of novel optical fibre devices and microstructures, which are to form the basis of the next generation of telecommunications systems, and also novel and unique laser types. The research and development of all of these devices are receiving external funding (or are in negotiations therefore). The facility allows for high-speed and high-accuracy data acquisition, which makes it unique in Australia.Read moreRead less
Novel multi-channel and nonlinear Bragg grating devices. High capacity and reliable telecommunications links are essential for many aspects of modern life and work. Optical fibres offer essentially unlimited capacity, but their optimal use requires the transmission of multiple wavelength channels simultaneously. This, in turn, requires the development of special-purpose fibre devices for multiplexing and de-multiplexing these channels, as well as for other optical filtering and switching tasks. ....Novel multi-channel and nonlinear Bragg grating devices. High capacity and reliable telecommunications links are essential for many aspects of modern life and work. Optical fibres offer essentially unlimited capacity, but their optimal use requires the transmission of multiple wavelength channels simultaneously. This, in turn, requires the development of special-purpose fibre devices for multiplexing and de-multiplexing these channels, as well as for other optical filtering and switching tasks. Fibre Bragg gratings are central to many of these devices, and the aim of this project is to develop novel designs for linear and nonlinear Bragg grating devices which may significantly widen the current range of their applications.Read moreRead less
Innovation in photonic device imaging: The keystone for future technologies. Advances in the use of photonic technology in telecommunications and a range of industrial applications depend critically on a precise knowledge of the physical structure of the optical fibre or device. This project involves the development of a suite of precision imaging techniques for determining the structure of optical fibres and in-fibre devices such as gratings and its application to a range of important problems ....Innovation in photonic device imaging: The keystone for future technologies. Advances in the use of photonic technology in telecommunications and a range of industrial applications depend critically on a precise knowledge of the physical structure of the optical fibre or device. This project involves the development of a suite of precision imaging techniques for determining the structure of optical fibres and in-fibre devices such as gratings and its application to a range of important problems in optical fibre technology. This knowledge is central to the ability to optimise and improve fibre and device fabrication methods, laying the foundations for higher speed telecommunications and the production of novel photonic devices.Read moreRead less
Tailoring ultrafast pulses for Tb/s transmission with advanced modulation formats. Ultrahigh bandwidth communications technologies will play an increasingly important role in the social and economic development of Australia. The potential benefit is emphasised by the recent decision to build a broadband network valued at $8 B that will link the vast majority of Australian homes and businesses by high speed optical fibre. In this project we will investigate innovative approaches for optical trans ....Tailoring ultrafast pulses for Tb/s transmission with advanced modulation formats. Ultrahigh bandwidth communications technologies will play an increasingly important role in the social and economic development of Australia. The potential benefit is emphasised by the recent decision to build a broadband network valued at $8 B that will link the vast majority of Australian homes and businesses by high speed optical fibre. In this project we will investigate innovative approaches for optical transmission of data at the ultrahigh bit rates required by these next generation networks. These approaches will be based on technology developed in Australia by the Partner Organisation Optium Corporation, leading to further growth opportunities within the Australian manufacturing operation of this company.Read moreRead less