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Australia's astronomers are exceptionally well placed to lead and to partner major international programs in Antarctic astronomy. These bring Australian industry increased access to cutting edge technology, and create business opportunities in the infrastructure and support of Antarctic research.
Ocean acidification and warming are global phenomena that will impact marine biota through the 21st century.
This research will determine variability in the influx and mineralogy of cosmic dust to the Southern Ocean during the Holocene from peat bog cores. Cosmic dust contains significant quantities of soluble iron, a micronutrient required for photosynthesis.
High latitude terrestrial ecosystems are experiencing rapid change, which is most likely caused by climate change, human impacts, and invasive species. Up-to-date and accurate spatial data at a range of scales are of crucial importance for mapping changes in these fragile ecosystems.
We will use mosses to investigate the changing climate in Antarctica and the implications this has for terrestrial biodiversity.
Bacteria in marine environments have been found to be able to partially support growth by using light to generate energy in a non-photosynthetic process. This is possible due to a special protein called proteorhodopsin.
Regions of Antarctica are undergoing significant change in response to the Earth's changing climate.
Microscopic plankton (e.g. diatoms) form the base of the marine food-chain and account for ~40% of global primary production, and hence moderating our climate through the ocean's ability to drawdown CO2.
The McMurdo Dry Valleys represent the largest snow and ice free region on Antarctica. This unique landscape is believed to have remained essentially unchanged for > 13 million years and is the closest Earth analogue to conditions on Mars.
Climate change and feral animals are having profound effects on Macquarie Island, threatening its World Heritage values.