Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0775676
Funder
Australian Research Council
Funding Amount
$290,000.00
Summary
An X-ray Diffraction Facility for Molecular Structure Determination. Characterisation of new chemical compounds demands proof of molecular structure. Whether for the identification of a new drug candidate, a material with novel properties or in the exploration of previously unknown types of compounds, X-ray crystallography is the definitive technique for this purpose. This proposal is for an X-ray diffractometer that will significantly enhance the capabilities of all synthetic and natural produc ....An X-ray Diffraction Facility for Molecular Structure Determination. Characterisation of new chemical compounds demands proof of molecular structure. Whether for the identification of a new drug candidate, a material with novel properties or in the exploration of previously unknown types of compounds, X-ray crystallography is the definitive technique for this purpose. This proposal is for an X-ray diffractometer that will significantly enhance the capabilities of all synthetic and natural products chemistry research programs undertaken at the Universities of Queensland and Newcastle, all currently in receipt of ARC funding. This research is aligned with the ARC National Research Priorities, of Promoting and Maintaining Good Health and Frontier Technologies for Building and Transforming Australian Industries.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0668439
Funder
Australian Research Council
Funding Amount
$730,000.00
Summary
Elemental and Structural Analysis Facility Comprising a FTICR Mass Spectrometer and a CHNS Analyser. The determination of molecular structure is important in many fields of chemistry, biochemistry and material science. Without such determinations much chemical research would be viewed as incomplete and rendered unpatentable as well as unpublishable. The two state-of-the-art instruments to be purchased will improve the ability of a wide cross-section of researchers to rapidly characterize compoun ....Elemental and Structural Analysis Facility Comprising a FTICR Mass Spectrometer and a CHNS Analyser. The determination of molecular structure is important in many fields of chemistry, biochemistry and material science. Without such determinations much chemical research would be viewed as incomplete and rendered unpatentable as well as unpublishable. The two state-of-the-art instruments to be purchased will improve the ability of a wide cross-section of researchers to rapidly characterize compounds important in fields as varied as medicinal chemistry, material science and geosciences. All types of chemical research, from fundamental to applied, will benefit from these instruments with clear and positive implications regarding societal impact.Read moreRead less
New vistas in porphyrin chemistry via metal-catalyzed couplings with hydrazine derivatives. This project will address basic scientific questions and develop new substances for use in molecular electronics and cancer therapy. We will make and study entirely new molecules derived from porphyrins, which in Nature have vital roles in photosynthesis, oxygen transport and enzyme catalysis. This breakthrough research will reveal knowledge vital to the advancement of fundamental chemical science and als ....New vistas in porphyrin chemistry via metal-catalyzed couplings with hydrazine derivatives. This project will address basic scientific questions and develop new substances for use in molecular electronics and cancer therapy. We will make and study entirely new molecules derived from porphyrins, which in Nature have vital roles in photosynthesis, oxygen transport and enzyme catalysis. This breakthrough research will reveal knowledge vital to the advancement of fundamental chemical science and also offer excellent training in cutting edge research for young Australian scientists. In addition, porphyrin-like substances are used in cancer diagnosis and treatment and have properties essential for the next generation of nanoelectronic devices, and this project is aimed at these eventual outcomes.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE130100057
Funder
Australian Research Council
Funding Amount
$200,000.00
Summary
A diffractometer for small molecule structural elucidation by crystallographic analysis. X-ray diffractometry provides an unambiguous means of identifying the three-dimensional spatial arrangement of atoms within molecules affording important insights into the origins of chemical properties. A modern diffractometer will provide information to help develop new functional materials, therapeutic agents and environmentally sustainable processes.
Bespoke rylene diimides for fundamental and applied photophysics. This project aims to develop and apply bespoke fluorescent molecular systems based on rylene diimide. Fluorescence provides a tuneable, exquisitely sensitive readout allowing detailed investigation and application down to the level of single molecules. This project will use fluorescence to study chemical reactions and energy transfer phenomena, design tools and methodologies for microscopy (including emerging super-resolution tech ....Bespoke rylene diimides for fundamental and applied photophysics. This project aims to develop and apply bespoke fluorescent molecular systems based on rylene diimide. Fluorescence provides a tuneable, exquisitely sensitive readout allowing detailed investigation and application down to the level of single molecules. This project will use fluorescence to study chemical reactions and energy transfer phenomena, design tools and methodologies for microscopy (including emerging super-resolution techniques), and develop 'designed for purpose' systems for a range of applications. The knowledge gained and proofs-of-principle established are expected to influence fields as diverse as energy storage and transduction, imaging and diagnostics and chemical reactions and catalysis.Read moreRead less
Porphyrin arrays - Light Harvesting in three dimensions. The emulation of photosynthesis, the efficient and sustainable utilization of solar energy using renewable materials represents one of the great scientific challenges. This project will explore one aspect of this by determining the nature and scope of using assemblies of artificial chlorophylls for three dimensional light harvesting in titania solar cells.
Inception of a Practical, Biomimetic, Flexible Photovoltaic Device. This project will design and synthesise new, complex, functional organic molecules and assemble them to create a new type of photovoltaic cell. This device will be designed using biomimetic principles to emulate many of the efficient photosynthetic solar energy conversion processes that occur in plants. A key feature is that near atomic-level control will be achieved over the entire device structure, facilitating the establish ....Inception of a Practical, Biomimetic, Flexible Photovoltaic Device. This project will design and synthesise new, complex, functional organic molecules and assemble them to create a new type of photovoltaic cell. This device will be designed using biomimetic principles to emulate many of the efficient photosynthetic solar energy conversion processes that occur in plants. A key feature is that near atomic-level control will be achieved over the entire device structure, facilitating the establishment of a clear path towards the commercial production of solar cells that are simultaneously highly efficient, long lasting, flexible, and very cheap to manufacture.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE210100065
Funder
Australian Research Council
Funding Amount
$423,808.00
Summary
Designing Organocatalysts to Achieve Hyperpolarised Magnetic Resonance. Magnetic resonance techniques (such as MRI scans) suffer from an inherent insensitivity problem. In medical imaging, this can hamper diagnosis and mean long scan times for patients. This project aims to chemically develop catalysts which dramatically increase sensitivity, producing a signal that is thousands of times more visible. This project is significant as these catalysts can turn common, harmless molecules in the body ....Designing Organocatalysts to Achieve Hyperpolarised Magnetic Resonance. Magnetic resonance techniques (such as MRI scans) suffer from an inherent insensitivity problem. In medical imaging, this can hamper diagnosis and mean long scan times for patients. This project aims to chemically develop catalysts which dramatically increase sensitivity, producing a signal that is thousands of times more visible. This project is significant as these catalysts can turn common, harmless molecules in the body - even water - into visible tracers. The expected outcomes of this project include the synthesis and understanding of these catalysts which will be chemically fine-tuned to maximise their effectiveness. Potential benefits include translation to MRI applications to improve diagnosis and treatment, or chemical monitoring.Read moreRead less
Exploring new roles for phosphorus radicals in health, environment, and technology. Several practical outcomes will arise from this project. Information on processes that contribute to genetic disease and cancer will be derived through studies of the role of phosphorus radicals in DNA damage. Processes that lead to the degradation of natural and synthetic materials in the environment will be explored. Clean reactions will be developed for the fabrication of advanced materials (e.g. pharmaceutica ....Exploring new roles for phosphorus radicals in health, environment, and technology. Several practical outcomes will arise from this project. Information on processes that contribute to genetic disease and cancer will be derived through studies of the role of phosphorus radicals in DNA damage. Processes that lead to the degradation of natural and synthetic materials in the environment will be explored. Clean reactions will be developed for the fabrication of advanced materials (e.g. pharmaceuticals). These innovations will expand Australia's international profile in a growing research area. The project will also address three of Australia's National Research Priorities, contribute to the training of researchers in Free Radical Chemistry, and initiate research collaborations with institutions in France and the USA.Read moreRead less
New Catalysed Routes to the Efficient Synthesis of Biologically Active Molecules. Enhancing the economic viability and the energy efficiency of chemical transformations is of fundamental importance in the chemicals industry, and is essential in the targeted production of drugs and fine chemicals for frontier technologies. By using multiple metal centres to simultaneously promote series of reaction steps in a single pot, this project will develop an innovative approach to efficient syntheses of b ....New Catalysed Routes to the Efficient Synthesis of Biologically Active Molecules. Enhancing the economic viability and the energy efficiency of chemical transformations is of fundamental importance in the chemicals industry, and is essential in the targeted production of drugs and fine chemicals for frontier technologies. By using multiple metal centres to simultaneously promote series of reaction steps in a single pot, this project will develop an innovative approach to efficient syntheses of biologically active molecules. The new methods and new catalysts for enhancing the synthesis of highly functionalised compounds will improve significantly the environmental impact of chemical processes by reducing the amount of chemicals required, and reducing waste and energy requirements.Read moreRead less