We address pressing challenges in health and sustainability from a molecular perspective. We develop chemical tools and analytical techniques for the preparation and in-depth characterisation of new medicines, complex samples, molecular bioprobes and advanced materials. Our discipline advances basic understanding of molecular processes and develops sustainable methods to prepare molecules.
The Kelso Moller research group’s interests are centred on the study of vaping products including nicotine-containing and nicotine-free products (vitamin and “health” vapes) and cannabis vaping. Our studies focus on determining the chemical composition of these products (commercially available on the Australian market, licit or illicit, and reproduced in the laboratory) to assess their health impacts (via comparison to known harms and in house in vitro toxicity studies).
Our group has developed analytical methods to investigate the chemical composition of the different samples outlined below.
Detection and quantification of the following compounds in electronic cigarette products:
Analysis of cannabis vaping products allows for the determination of:
Our most recent collaborative projects include:
For more information, view Dr Celine Kelso and Dr Jody Moller Scholar pages
The Pyne group’s interests are concerned with the application of organic chemical synthesis to the preparation of novel and biologically relevant heterocyclic compounds for new drug discovery. Our current collaborative projects include:
We are also collaborating with scientists in SE Asia (Thailand, Vietnam and Indonesia) and Nigeria on studying traditional medical plants for the discovery of new antibacterial, anti-cancer and anti-malarial agents.
View Professor Stephen Pyne's Scholars page
Contact spyne@uow.edu.au for more information
The Hyland research group develops new catalytic chemical reactions for the synthesis of biologically important molecular motifs. In particular, we focus on the stereoselective synthesis of complex heterocycles via transition metal catalysis. The ultimate aim of our work is to develop tools for chemists and biologists to build complex molecules that may be used in new pharmaceuticals, biological probes or materials, while contributing to fundamental chemical knowledge. We also use our knowledge of reaction mechanisms and organometallics to design selective anti-cancer pro-drugs that are activated by reactive oxygen species.
View Dr Chris Hyland's Scholars page
Contact chrhyl@uow.edu.au for more information.
View Scholars page