A new generation of photoresists for three- dimensional laser lithography. This project aims at a step-change in photoresist technology by introducing visible-light-induced photochemistry as the basis of next generation direct laser writing (DLW) technology. This willenable functional photoresists that allow precision coding of complex soft matter material properties on the three-dimensional nanoscale. The outcomes of the project will enable the mild fabrication of three-dimensional structures w ....A new generation of photoresists for three- dimensional laser lithography. This project aims at a step-change in photoresist technology by introducing visible-light-induced photochemistry as the basis of next generation direct laser writing (DLW) technology. This willenable functional photoresists that allow precision coding of complex soft matter material properties on the three-dimensional nanoscale. The outcomes of the project will enable the mild fabrication of three-dimensional structures with unique property control and resolution, benefitting diverse fields ranging from designer (stem) cell niches and lab-on-a-chip applications to photonic wire bonding.Read moreRead less
Australian Laureate Fellowships - Grant ID: FL170100014
Funder
Australian Research Council
Funding Amount
$3,275,680.00
Summary
Light-Induced chemical modularity: a new frontier in macromolecular design. This project aims to develop powerful light-driven chemistries for the modular construction of advanced macromolecular materials. The expected outcome is a versatile, light-based precision macromolecular synthetic technology platform, enabling critical advances in soft matter material design and synthesis, ranging from selectivity control of chemical reactions and information-coded and biomimetic light-responsive macromo ....Light-Induced chemical modularity: a new frontier in macromolecular design. This project aims to develop powerful light-driven chemistries for the modular construction of advanced macromolecular materials. The expected outcome is a versatile, light-based precision macromolecular synthetic technology platform, enabling critical advances in soft matter material design and synthesis, ranging from selectivity control of chemical reactions and information-coded and biomimetic light-responsive macromolecules to advanced functional photoresists for 3D laser lithography as well as materials that self-report structural transformations by light or are reprogrammable in their properties by photonic fields. Harnessing the power of light as a precision tool for the construction of advanced macromolecular materials will provide technology outcomes for Australian manufacturing industries from electronics to health. This includes laser-driven 3D printing technology at the nano-level, light-adaptive smart reprogrammable coatings and materials, synthetic proteins responsive to light as well as tailor-made single cell niches.Read moreRead less
Advanced Fibre Interfaces in Active Water Management Systems. Flooding is a critical issue in Australia, generating considerable economic losses, including by stormwater contamination. The current project will pioneer an integrated solution for stormwater retention, while removing chemical pollutants. In collaboration with the company ROCKWOOL-Lapinus - based on a stonewool fibre platform - we will (i) design fibre coatings based on a versatile and chemically simple deposition process, (ii) inco ....Advanced Fibre Interfaces in Active Water Management Systems. Flooding is a critical issue in Australia, generating considerable economic losses, including by stormwater contamination. The current project will pioneer an integrated solution for stormwater retention, while removing chemical pollutants. In collaboration with the company ROCKWOOL-Lapinus - based on a stonewool fibre platform - we will (i) design fibre coatings based on a versatile and chemically simple deposition process, (ii) incorporate functionalities onto the fibres allowing active stormwater treatment to e.g. retain pollutants or target heavy metals and (iii) investigate these interfaces in-depth by advanced surface and interface characterisation methods to understand the fibre interface properties from nano- to macroscale.Read moreRead less
High performance inks for solution based organic light emitting diodes manufacturing. This project aims to introduce an advanced solution processing and printing technique for organic light emitting diode (OLED) fabrication based on a set of innovative macromolecular chemistries. These proceed either photochemically or thermally, exploiting precision macromolecular designs of the polymer precursor materials, which contain advanced emitter systems developed by Cynora. Solution fabrication of OLED ....High performance inks for solution based organic light emitting diodes manufacturing. This project aims to introduce an advanced solution processing and printing technique for organic light emitting diode (OLED) fabrication based on a set of innovative macromolecular chemistries. These proceed either photochemically or thermally, exploiting precision macromolecular designs of the polymer precursor materials, which contain advanced emitter systems developed by Cynora. Solution fabrication of OLED is a challenging, yet ultimately powerful, process with key advantages over current vacuum processing systems, especially with regard to production flexibility, cost and OLED size. The project will provide a functioning technology platform for solution OLED fabrication.Read moreRead less
Photochemical Design of Microstructured Aerospace Materials. Commercial aviation and shipping spend over US$300 billion on fuel and emit almost 3 billion tonnes of carbon dioxide annually at an enormous environmental cost. This project will provide the material chemistry innovation basis for the production of drag reduction surfaces that can be applied to enable a more effective airflow over an aircraft, thus reducing fuel consumption. Critically, the material design approach will not only deliv ....Photochemical Design of Microstructured Aerospace Materials. Commercial aviation and shipping spend over US$300 billion on fuel and emit almost 3 billion tonnes of carbon dioxide annually at an enormous environmental cost. This project will provide the material chemistry innovation basis for the production of drag reduction surfaces that can be applied to enable a more effective airflow over an aircraft, thus reducing fuel consumption. Critically, the material design approach will not only deliver a high performance coating for the production of drag reduction surfaces, but allow these surfaces to be tailored to specific application profiles including UV resistance and anti-fouling properties. The project will place an Australian company at the forefront of drag reduction technologyRead moreRead less
Precision-built dynamic and functional polymer vesicles. The project aims to create new precision-built polymer vesicles with controlled size, stability, functionality and environmental responsiveness to mimic some of the key dynamic functions of the cell. The project expects to generate new knowledge on the dynamic interplay between the polymer and its bilayer including on-demand activated polymerisations and reactions, logic gates and in situ sensors. Expected outcomes of this project include ....Precision-built dynamic and functional polymer vesicles. The project aims to create new precision-built polymer vesicles with controlled size, stability, functionality and environmental responsiveness to mimic some of the key dynamic functions of the cell. The project expects to generate new knowledge on the dynamic interplay between the polymer and its bilayer including on-demand activated polymerisations and reactions, logic gates and in situ sensors. Expected outcomes of this project include new synthetic polymer techniques and new quantitative insights into the role of compartmentalisation on chemical reactions and polymerisations. This project will provide fundamental knowledge on bio/polymer vesicles with great potential to advance the polymer industry in Australia.Read moreRead less
Biomimetic hydrogels. Hydrogels are promising materials to repair and regenerate damaged tissues, but their weak mechanical properties limit their applications. This project aims to develop hydrogels with better mechanical properties by mimicking the way natural tissues, such as cartilage, work. Specifically, we aim to develop a new class of hydrogels by adding molecular polymer brushes to traditional materials. We will design the hydrogels with long-term stability and render them suitable as vi ....Biomimetic hydrogels. Hydrogels are promising materials to repair and regenerate damaged tissues, but their weak mechanical properties limit their applications. This project aims to develop hydrogels with better mechanical properties by mimicking the way natural tissues, such as cartilage, work. Specifically, we aim to develop a new class of hydrogels by adding molecular polymer brushes to traditional materials. We will design the hydrogels with long-term stability and render them suitable as viable hosts for chondrocytes. Through this project, we will grow fundamental knowledge in polymer chemistry and tissue engineering, and pave the way for new technologies to repair damaged joints and tissues.Read moreRead less