Skip to menu Skip to content Skip to footer
News

UQ leads the way in research excellence

20 August 2003

The amazing science of constructing materials atom by atom may seem like science fiction, but researchers at The University of Queensland are getting ever closer to making it science fact.

And that work has been given a huge boost with the announcement of more than $7 million in funding over five years towards an Australian Research Council (ARC) Centre for Functional Nanomaterials to be led by Professor Max Lu from UQ’s School of Engineering.

Professor Lu, a renowned researcher in the field of nanotechnology and ARC Federation Fellow, said the establishment of the new Centre would push the boundaries of nanotechnology even further.

“I’m delighted this Centre was approved,” Professor Lu said.

“Not only will it allow us to grow our research even further but also give a boost to nanotechnology in Australia.”

He said the work of the Centre would build on existing research of those involved, including new forms of sustainable energy that are both efficient and cheap, as well as the incredible potential of biomaterials and engineering tissue for organ replacements.
UQ’s will also be the lead partner in two other ARC Centres Centre for Genome-Phenome Bioinformatics and the ARC Centre for Complex Systems.

Professor Mark Ragan, from UQ’s Institute for Molecular Bioscience, will lead the ARC Centre for Genome-Phenome Bioinformatics that received almost $4 million in funding to examine, through advanced computing techniques, how the genome comes to life in the mammalian cell.

The Centre will develop advanced bioinformatic strategies, software and databases, and integrate them with existing tools to produce a prototype of a Visual Cell.

This dynamic 3-D computer model will make it possible to manage and understand large, complex bio-data sets and will help position Australia at the leading edge the bio-based industries of the 21st Century.

“This funding recognises the growing importance of bioinformatics in Australia,” Professor Ragan said.

“And the research itself will eventually allow us to predict how the mammalian genome forms and functions, which will have wide-ranging applications across many areas of science.”

Professor Peter Lindsay, from UQ’s School of Information Technology & Electrical Engineering, will head up the ARC Centre for Complex Systems that received $4.5 million in funding.

The new Centre will conduct world-class basic and applied research on questions fundamental to understanding and managing complex systems.

The research will be based around applications in air traffic control, genetic regulatory networks and the evolution of economic systems and promises fundamental breakthroughs on how such complex systems can be managed and controlled.

UQ was the only Queensland university to receive funding in yesterday’s $47 million announcement and was also the lead partner in more ARC Centres than any other university in the country.

Together with the Centres of Excellence announced late last year, the University is sharing in funding totalling more than $71 million out of the almost $140 million pool.

UQ’s Deputy Vice-Chancellor (Research), Professor David Siddle, said he was delighted with the announcement of three additional ARC Centres.

“When combined with our leadership of the Centre of Excellence for Integrative Legume Research, our partnership in four other Centres of Excellence announced last year, and the Special Research Centre in Functional and Applied Genomics, UQ now has an outstanding profile in ARC-funded centres”, Professor Siddle said.

Media: For more information contact Professor Max Lu (telephone 0402 892 799), Professor Mark Ragan (telephone 07 3365 1160), Professor Peter Lindsay (telephone 07 3365 2005) or Andrew Dunne at UQ Communications (telephone 07 3365 2802).

Related articles

Hand-coloured drawing of the town of Hobart in the 1800s, depicting grassy plains, the beach and a small town in the distance.
Analysis

What was Australia’s first novel?

The first novel written and published in Australia is a multifaceted work of autobiographical and historical significance, a convict narrative and, arguably, Australia’s first work of crime fiction.
15 October 2026
Three researchers wearing blue protective lab gowns stand among rows of potted chickpea plants inside a controlled-environment plant research facility.

Turning up the heat on chickpea yield

A University of Queensland study has outlined a practical pathway for accelerating the development of heat adapted chickpeas using data from new ‘omic’ technologies. PhD candidate Callum Jamie said the suite of technologies offered tremendous opportunities to understand how a complex trait like heat tolerance works. “The narrow genetic diversity in the elite chickpea gene pool has limited conventional breeding’s effectiveness for stress tolerance,” Mr Jamie said. “These technologies have improved our capacity to dissect trait architecture and phenotype secondary traits but their use in chickpeas has been limited.” The technologies include genomics, epigenomics, transcriptomics, proteomics, metabolomics, phenomics and enviromics, and help provide a comprehensive picture of biological systems. Epigenomics helps understand what controls gene activity; transcriptomics considers gene expression; proteomics protein production; metabolomics looks at biochemical processes; phenomics observes traits; and enviromics considers environmental factors influencing outcomes. Mr Jamie said previous studies had focused on just 1 to 2 -omic datasets, a small number of genotypes, and single tissues. This has meant it was hard to infer what results meant for trait architecture and mechanisms and the ability to extrapolate the information to breeding populations was limited. There have also been challenges around cost, scalability and integrating very different types of data to make the technologies useful. To overcome the hurdles, Mr Jamie’s research at the Queensland Alliance for Agriculture and Food Innovation has resulted in a proposed staged approach. It would start with genomic prediction and phenotyping, before adding -omic layers as costs fall and unknowns were resolved. “These technologies are novel and we still don’t know which information provides added value and how best to integrate all of this data to achieve an outcome,” Mr Jamie said. His PhD is supported by the Grains Research and Development Corporation (GRDC) and the International Research Training Group (IRTG) Accelerating Crop Genetic Gain and is aligned to a project which aims to fast-track the development of chickpea varieties adapted to high temperatures. Project leader Dr Millicent Smith said heat stress causes severe yield implications through flower and pod loss, reduced pollen viability and impaired grain filling. “Late sown chickpea is particularly in the firing line across most of Australia's crop in southern Queensland and northern New South Wales,” Dr Smith said. “We want to ensure that Australian growers maintain their competitive edge. “New varieties with improved genetics to cope with heat stress are essential for the future. “This work, suggesting a staged approach to utilising the new -omic technologies, is an exciting frontier.” The research was published by Food and Energy Security. Callum Jamie’s PhD is supported by the Grains Research and Development Corporation (GRDC) and the International Research Training Group (IRTG) Accelerating Crop Genetic Gain.
15 October 2026

Media contact

Subscribe to UQ News

Get the latest from our newsroom.