Search results

ANSTO has a range of capabilities and expertise to support aerospace and space research.

The High Performance Macromolecular Crystallography beamline will enable the study of very small (sub-5 micrometre) or weakly diffracting crystals, providing a state-of-the-art high-throughput facility for researchers. MX3 will be able to study the structures of large proteins and protein complexes for virology, drug design and industrial applications via goniometer mounted crystals, in-tray screening, or via serial crystallography methods.

Insights into the crystallisation process of twin crystals important for drug production.

Progress on a more environmentally-friendly production method for hydrogen peroxide.

In a world-first study, Australian environmental scientists have used cave stalagmites as a record of groundwater replenishment over time, that showed the current level of rainfall recharging groundwater in southwest WA is at its lowest for at least the last 800 years.

Researchers based at Monash University and the Swedish Museum of Natural History have pioneered the use of nuclear imaging techniques at ANSTO’s Centre for Neutron Scattering to resolve long-standing problems in plant evolutionary history linked to wildfires.

Phenomenon predicted by Nobel Prize recipient

ANSTO offers capabilities and expertise for the radiation testing and accreditation of space-based systems.

Technical information on the Soft X-ray spectroscopy beamline at the Australian Synchrotron.

Within the bulk structure of such glasses, boron is known to be a key actor, as it exhibits intriguing and composition-dependent changes in coordination state that often drive properties.

International collaboration uses cryo-electron tomography to determine the structure of a complex responsible for sorting and delivering cellular cargo.

A team of scientists led by Monash University and the University of Melbourne in association with the Peter Doherty Institute for Infection and Immunity have made progress in clarifying the molecular interactions that underpin how our adaptive immune cells recognise SARS CoV-2, which causes COVID-19.

Stable, highly conductive 2D nanosheets of boron nitride promising new material.

International collaboration uses Australian Synchrotron on pioneering malaria research.