The Sydney Nano Grand Challenges are aimed at discovering ground-breaking solutions to the world’s greatest challenges that are of social, economic and scientific significance. Bringing together researchers from across the University, the multidisciplinary Grand Challenge initiative will be enabled by advances in nanoscience and nanotechnology.
Sydney Nano Grand Challenges are flagship programs of our Institute. They all align with the strategic priorities of the University and foster multidisciplinary collaboration amongst Faculties, other multidisciplinary institutes, Core Research Facilities and Professional Service Units. The strategic research framework of the institute is based on themes and domains, and the Grand Challenges are interlinked with this framework.
Each Grand Challenge engages researchers across the whole University and comprises most senior academics to researchers in the early stages of their career. They provide opportunities for multidisciplinary research and education while presenting opportunities for industry partnerships, commercialisation and outreach with the public.
To lay the groundwork for a new generation of buildings that are self-sufficient in energy and water consumption, able to produce on-site food to encourage healthy eating habits and contribute to the regulation of heat stress and pollution. Led by Dr Arianna Brambilla & Prof. Deanna D’Alessandro.
To develop disruptive nanoscale sensing technologies for detection of airborne pathogens to upgrade public biosecurity standards and regulations. Led by Prof. Antonio Tricoli & Prof. Corinne Caillaud.
Developing a low cost method to capture enough water from the atmosphere to alleviate the effect of drought by providing water for consumption by humans and animals, and for irrigating plants.
Reducing CO2 emissions in manufacturing processes and converting CO2 into commercial products through nanocatalysis.
Developing a regulation framework to assess safety, efficacy and toxicity, and guide the future development of nanomaterials – across drug formulations, food additives and biosensors.
Building autonomous, programmable nanorobots to navigate through the body to detect and treat early disease.
Simulating new materials from a single atom to fully functioning devices using quantum computers, multiscale simulation, artificial intelligence and machine learning.
Rethinking the means of intervention into the human nervous system to make untreatable neurological diseases treatable, and to transform treatments into comprehensive cures.