Redesigning the transistor at the atomic-scale. Australian researchers have a world-wide leadership position in atomic-scale electronics. Through the development of powerful new fabrication technologies, Australian scientists are now poised to uncover the physical properties of electronic systems operating on the atomic-scale. This research will be internationally significant, providing ongoing international profile for Australian science. Perhaps more significantly, it will also lay the groundw ....Redesigning the transistor at the atomic-scale. Australian researchers have a world-wide leadership position in atomic-scale electronics. Through the development of powerful new fabrication technologies, Australian scientists are now poised to uncover the physical properties of electronic systems operating on the atomic-scale. This research will be internationally significant, providing ongoing international profile for Australian science. Perhaps more significantly, it will also lay the groundwork for future miniaturisation - and redesign - of the conventional transistor. Over the longer-term, it offers an opportunity for Australia to lift its involvement in the multi-trillion dollar global semiconductor industry.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0454224
Funder
Australian Research Council
Funding Amount
$1,234,800.00
Summary
Scanning probe facility for atomic-scale device fabrication in silicon and its integration with molecular electronics. This application will establish a unique scanning probe facility to launch two major new initiatives in electronic device fabrication in Australia: (i) atomic-scale device fabrication in silicon and (ii) the integration with molecular electronics. The revolutionary features of the Nanoprobe system exploits recent advances in scanning probe techniques to allow for the first time ....Scanning probe facility for atomic-scale device fabrication in silicon and its integration with molecular electronics. This application will establish a unique scanning probe facility to launch two major new initiatives in electronic device fabrication in Australia: (i) atomic-scale device fabrication in silicon and (ii) the integration with molecular electronics. The revolutionary features of the Nanoprobe system exploits recent advances in scanning probe techniques to allow for the first time fully functional silicon and hybrid silicon-molecular electronic devices to be fabricated and tested at the atomic-scale. Such a facility will draw together a host of experienced researchers in this emerging field enabling Australia to actively lead the development of this new technology at its early stages.Read moreRead less
Fundamental conduction mechanisms in atomic-scale silicon devices. This proposal will ensure that Australia remains at the forefront of worldwide research into atomic-scale electronics. It links leading nanotechnologists from Canada and Italy to a dynamic and growing Australian team, which already has strong collaborations with researchers in the UK, the US, Japan, and Taiwan. In the long-run, Australia stands to benefit indirectly from the research as it is a significant user of semiconductors ....Fundamental conduction mechanisms in atomic-scale silicon devices. This proposal will ensure that Australia remains at the forefront of worldwide research into atomic-scale electronics. It links leading nanotechnologists from Canada and Italy to a dynamic and growing Australian team, which already has strong collaborations with researchers in the UK, the US, Japan, and Taiwan. In the long-run, Australia stands to benefit indirectly from the research as it is a significant user of semiconductors across all major industries. More importantly, by anticipating the problems that electronic device manufacturers will face over their long-term horizons, the proposed research also seeks to provide Australia with a chance to lift its involvement in the multi-trillion dollar global semiconductor industry.Read moreRead less
Atomic-scale Devices in Silicon - the Ultimate Limit of Microelectronics. Miniaturisation is the driving force behind the microelectronics industry, but beyond 2015 there is no known route to reduce device sizes below 10nm. The Fellowship will launch a major new initiative for the fabrication of silicon electronic devices at the atomic-scale (0.1nm). The project will exploit recent advances in scanning probe techniques to develop smaller and faster conventional transistors, nanoscale integrated ....Atomic-scale Devices in Silicon - the Ultimate Limit of Microelectronics. Miniaturisation is the driving force behind the microelectronics industry, but beyond 2015 there is no known route to reduce device sizes below 10nm. The Fellowship will launch a major new initiative for the fabrication of silicon electronic devices at the atomic-scale (0.1nm). The project will exploit recent advances in scanning probe techniques to develop smaller and faster conventional transistors, nanoscale integrated circuits, and address device reproducibility at this scale. This will extend Australia's early lead in atomic-scale silicon electronics to the stage where interested industry partners can evaluate it commercially in a way that will maximise benefits to Australia.Read moreRead less
Silicon-based molecular electronics. A whole new class of electronic devices based on single atoms and molecules is emerging. At this scale, the device components cease to behave like ordinary matter and novel quantum effects can be exploited. The tremendous potential for both device miniaturisation and the exploitation of quantum effects afforded by single-molecule devices has already been demonstrated. However, methods for assembling single-molecules into circuits and integrating them with con ....Silicon-based molecular electronics. A whole new class of electronic devices based on single atoms and molecules is emerging. At this scale, the device components cease to behave like ordinary matter and novel quantum effects can be exploited. The tremendous potential for both device miniaturisation and the exploitation of quantum effects afforded by single-molecule devices has already been demonstrated. However, methods for assembling single-molecules into circuits and integrating them with conventional technology remain elusive. Here, a strategy is presented for combining the functionality of organic, carbon-based components, with more conventional, silicon-based technology. The potential economic benefits for Australia of this hybrid carbon/silicon strategy are huge.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0347797
Funder
Australian Research Council
Funding Amount
$263,000.00
Summary
A Versatile High-resolution X-ray Diffractometer for Materials Research. The aim of this project is to establish a state-of-the-art triple-axis x-ray diffraction facility capable of non-destructively analysing complex semiconductor materials and structures investigated by all Australian semiconductor-growing groups. Growers and device engineers will be able to control growth processes accurately and correlate device performance with structural analysis. Modern triple-axis instruments can also b ....A Versatile High-resolution X-ray Diffractometer for Materials Research. The aim of this project is to establish a state-of-the-art triple-axis x-ray diffraction facility capable of non-destructively analysing complex semiconductor materials and structures investigated by all Australian semiconductor-growing groups. Growers and device engineers will be able to control growth processes accurately and correlate device performance with structural analysis. Modern triple-axis instruments can also be used for high-resolution texture analysis and surface reflectivity measurements on numerous types of materials. Thus chemists, geologists, and materials scientists with interests outside of the semiconductor growth community will gain substantial benefit from this instrument for the investigation of materials of technological and economic importance.Read moreRead less
Developing the Helium Atom Pinhole Camera. The tantalising possibility of an optical instrument that uses neutral atom beams to image surfaces, rather than light or electrons, has been a grand challenge in Physics ever since de Broglie first postulated the existence of matter waves . This project seeks to realise this seminal goal using an elegantly simple design based on the concept of a pin hole camera. The successful development of this world-first instrument would represent a significant adv ....Developing the Helium Atom Pinhole Camera. The tantalising possibility of an optical instrument that uses neutral atom beams to image surfaces, rather than light or electrons, has been a grand challenge in Physics ever since de Broglie first postulated the existence of matter waves . This project seeks to realise this seminal goal using an elegantly simple design based on the concept of a pin hole camera. The successful development of this world-first instrument would represent a significant advance in helium atom microscopy and would significantly enhance the reputation of Australian science. Moreover, this project strengthens and supports a key collaboration between the Universities of Newcastle and Cambridge and is at the core of this emerging technology.Read moreRead less
Imaging with Neutral Atomic Beams: A Completely New Tool for Nanotechnology. The tantalising possibility of building an optical instrument that uses neutral atom beams to image surfaces, rather than light or electrons, has long been a goal of physical scientists across the world. This project aims to realise this goal using an elegantly simple design based on the concept of a pin hole camera. The successful development of this world-first instrument would represent a significant advance in heliu ....Imaging with Neutral Atomic Beams: A Completely New Tool for Nanotechnology. The tantalising possibility of building an optical instrument that uses neutral atom beams to image surfaces, rather than light or electrons, has long been a goal of physical scientists across the world. This project aims to realise this goal using an elegantly simple design based on the concept of a pin hole camera. The successful development of this world-first instrument would represent a significant advance in helium atom microscopy and would significantly enhance the reputation of Australian science. Moreover, this project maintains the position of Australian researchers and students at the core of this emerging technology.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0775646
Funder
Australian Research Council
Funding Amount
$636,000.00
Summary
Surface and Magnetic structure of crystalline materials. This proposal brings together significant research groups in La Trobe University, Monash University, the University of Western Australia, Newcastle University and Sydney University to establish a unique materials characterisation facility which will enable surface and magnetic structures of technologically significant materials to be determined. It will support developments in the areas of new magnetic phenomenon which is used in magnetic ....Surface and Magnetic structure of crystalline materials. This proposal brings together significant research groups in La Trobe University, Monash University, the University of Western Australia, Newcastle University and Sydney University to establish a unique materials characterisation facility which will enable surface and magnetic structures of technologically significant materials to be determined. It will support developments in the areas of new magnetic phenomenon which is used in magnetic sensing and in the exploration of processes of size reduction for electronic devices. It will enable this new, world leading technology, to be applied to surface structures relevant in the areas of nanotechnology and catalysis.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0883095
Funder
Australian Research Council
Funding Amount
$750,000.00
Summary
Integrated Surface Fabrication and Characterisation Laboratory. New electronic devices and materials that exploit the properties of polymers and organic molecules are predicted to have a major impact on everyday life in areas such as photovoltaics, biotechnology and healthcare. The IntLAB facility will provide researchers for the first time with the unique capability of building and characterising complex multi-layered thin films of polymers and organic molecules completely under controlled envi ....Integrated Surface Fabrication and Characterisation Laboratory. New electronic devices and materials that exploit the properties of polymers and organic molecules are predicted to have a major impact on everyday life in areas such as photovoltaics, biotechnology and healthcare. The IntLAB facility will provide researchers for the first time with the unique capability of building and characterising complex multi-layered thin films of polymers and organic molecules completely under controlled environments. The IntLAB represents a major new joint venture between three major Australian Universities, CSIRO and ANSTO and will provide researchers with the essential tools for developing new electronic devices, biosensors, detectors and solar cells based on nanotechnology.Read moreRead less