Advancing the Metal-Organic Chemistry of the Heavy Alkaline Earth Elements. The project will open up a new area in Australian metal based chemical research, deriving high value added products from the already existing exploitation of Australia's substantial alkaline earth metal mineral resources. Internationally recognised expertise in the design and manipulation of highly reactive chemical tools will contribute breakthrough science and innovation to the growing pharmaceutical, fine chemicals an ....Advancing the Metal-Organic Chemistry of the Heavy Alkaline Earth Elements. The project will open up a new area in Australian metal based chemical research, deriving high value added products from the already existing exploitation of Australia's substantial alkaline earth metal mineral resources. Internationally recognised expertise in the design and manipulation of highly reactive chemical tools will contribute breakthrough science and innovation to the growing pharmaceutical, fine chemicals and smart materials industry, with the potential to provide nascent and established Australian companies a competitive edge in new product development. Students will be trained in the necessary skills to succeed in and expand such technically demanding area of metal based chemistry.Read moreRead less
Expanding the organometallic toolbox for constructing heterocycles. This project aims to design and synthesise stereospecific cyclic molecules. This is a problem for chemists, particularly when bioactivity and medicinal relevance depend on complex stereochemistry and substitution patterns. This team will build on their discovery of a cascade reaction for synthesising highly stereospecific indolene derivatives. They will target reagents and reaction pathways for creating heterocyclic molecules wh ....Expanding the organometallic toolbox for constructing heterocycles. This project aims to design and synthesise stereospecific cyclic molecules. This is a problem for chemists, particularly when bioactivity and medicinal relevance depend on complex stereochemistry and substitution patterns. This team will build on their discovery of a cascade reaction for synthesising highly stereospecific indolene derivatives. They will target reagents and reaction pathways for creating heterocyclic molecules which are difficult to access. They will synthesise and characterise homo- and hetero-bimetallic complexes to develop cyclic molecules and scaffolds relevant in drug discovery. New molecules and reaction pathways will be relevant for biological and medicinal chemistry, and drug discovery programmes.Read moreRead less
Early main group organometallic complexes and their role in asymmetric synthesis. This project will develop new highly reactive metal based molecular tools for the controlled synthesis of complex molecules which are normally difficult to access, and in so doing advances our synthetic armoury. The design of the reaction pathways and final molecules will have relevance for modern medicinal chemistry and drug discovery programs.
Discovery Early Career Researcher Award - Grant ID: DE140101137
Funder
Australian Research Council
Funding Amount
$389,470.00
Summary
Synthesis, Structure and Utility of Novel P-chiral and C-chiral Organophosphido Metal Complexes . The formation of new molecules requires original methods to achieve their synthesis with greatest efficiency. Organometallic chemistry remains crucial for establishing novel reagents and processes. Driven by advances in organo-multi-metallic chemistry this project will build upon fundamental concepts in main group and transition metal chemistry to establish the area of phosphorous-chiral and carbon- ....Synthesis, Structure and Utility of Novel P-chiral and C-chiral Organophosphido Metal Complexes . The formation of new molecules requires original methods to achieve their synthesis with greatest efficiency. Organometallic chemistry remains crucial for establishing novel reagents and processes. Driven by advances in organo-multi-metallic chemistry this project will build upon fundamental concepts in main group and transition metal chemistry to establish the area of phosphorous-chiral and carbon-chiral organophosphido metal chemistry. By rationally designing and integrating new chiral phosphido ligands into mono- and mixed-metal organometallic complexes, chemists will have access to a suite of new tools for application in asymmetric synthesis and catalysis, all relevant to the fields of structural, sustainable and biological chemistry.Read moreRead less
New reactivity from unusual main group compounds. This project will develop new, fundamentally important, yet unusual main group compounds and investigate their reactivity. The project will lead to important fundamental advance in main group chemistry and will form the basis for cheaper and cleaner future synthetic methodologies and technologies.
Novel hydride complexes for chemical applications. Many main group elements are abundant, cheap, generally less harmful and sometimes even biocompatible compared with most other elements from the periodic table. This project will develop a range of fundamentally important well-defined molecular s-block metal and non-metal hydride complexes and investigate their chemistry and properties. These underdeveloped but emerging compound classes are of significant importance for chemical synthesis, hydro ....Novel hydride complexes for chemical applications. Many main group elements are abundant, cheap, generally less harmful and sometimes even biocompatible compared with most other elements from the periodic table. This project will develop a range of fundamentally important well-defined molecular s-block metal and non-metal hydride complexes and investigate their chemistry and properties. These underdeveloped but emerging compound classes are of significant importance for chemical synthesis, hydrogen storage and catalysis. The results emerging from this project will contribute towards the development of greener and more sustainable technologies.Read moreRead less
Modern Low Oxidation State/Low Coordination Main Group Chemistry: A New Domain for Australian Science. The proposed research will benefit Australia by creating a knowledge base in an internationally important area of chemistry. This will be aided by the return to Australia of an international leader in the field. Through an integrated and interdisciplinary approach, the exploitation of technologies arising from the research program will be explored. In addition to the academic community, these ....Modern Low Oxidation State/Low Coordination Main Group Chemistry: A New Domain for Australian Science. The proposed research will benefit Australia by creating a knowledge base in an internationally important area of chemistry. This will be aided by the return to Australia of an international leader in the field. Through an integrated and interdisciplinary approach, the exploitation of technologies arising from the research program will be explored. In addition to the academic community, these technologies will benefit hi-tech industries including pharmaceutical and fine chemicals concerns which will gain from the use of the proposed group 13 heterocycles in organic synthesis. Moreover, industries reliant on polymer supports in catalytic process or opto-electronic polymers will profit from the various polymers derived from phosphaalkynes.Read moreRead less
Molecular Group 2 Metal(I) complexes: from chemical landmarks to versatile reagents. This project aims to systematically expand an internationally acclaimed pilot study which led to the initiation of a completely new and breakthrough field of chemistry, namely that of Group 2 metal-metal bonded complexes. The high reactivity of these systems will lead to them finding wide ranging applications in synthesis and materials chemistry.
Low oxidation state magnesium complexes: multitalented reagents for sustainable chemical synthesis. The chemistry of stable low oxidation state s-block compounds was initiated at Monash in 2007. In addition to being of major fundamental importance, applications of these highly reactive systems have rapidly developed. To cement Australia's international lead in this emerging and competitive field, this project aims to develop a new generation of magnesium(I) (and related) compounds, and to instal ....Low oxidation state magnesium complexes: multitalented reagents for sustainable chemical synthesis. The chemistry of stable low oxidation state s-block compounds was initiated at Monash in 2007. In addition to being of major fundamental importance, applications of these highly reactive systems have rapidly developed. To cement Australia's international lead in this emerging and competitive field, this project aims to develop a new generation of magnesium(I) (and related) compounds, and to install them as sought after reagents for sustainable synthetic methodologies. For the first time, environmentally benign s-block compounds will be utilised for the low energy stoichiometric and catalytic transformation of abundant, often inert gaseous small molecules, for example, hydrogen, nitrogen, carbon dioxide, carbon monoxide, to value added products important to industry and academia.Read moreRead less
Low-Valent p-Block Compounds: Taking on Noble Roles in Catalysis. In this project, innovative approaches will be employed to access new, and fundamentally important, classes of low oxidation state main group compounds, the electronic properties and reactivity of which will be readily tuned to mimic those of noble transition metal complexes. The project aims to harness these attributes, for the first time, to establish such compounds as cheap and sustainable alternatives to the expensive and toxi ....Low-Valent p-Block Compounds: Taking on Noble Roles in Catalysis. In this project, innovative approaches will be employed to access new, and fundamentally important, classes of low oxidation state main group compounds, the electronic properties and reactivity of which will be readily tuned to mimic those of noble transition metal complexes. The project aims to harness these attributes, for the first time, to establish such compounds as cheap and sustainable alternatives to the expensive and toxic transition metal catalysts that are currently essential to numerous synthetic processes utilised in academia and industry. The involvement of a synergistic international network of collaborators will be central to the success of this project, which offers major academic, environmental and economic benefits to Australia.Read moreRead less