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A sparrow with 257 parts weighing more than 29 tonnes arrives safely at ANSTO

CORIS360® GNI images gamma-ray and thermal neutron radiation sources, delivering an unprecedented ability to detect, localise, and identify nuclear materials.

A new nuclear medicine waste processing facility that showcases ANSTO Synroc technology is under construction.

Over the past 70 years ANSTO has been building Australia’s nuclear expertise and despite being small in scale, today we are complex and sophisticated nuclear nation.

ANSTO researchers have taken up the challenge to develop a coating for the cladding used in nuclear reactors to prevent it from taking up hydrogen and releasing it if temperatures get too high and repair itself if damaged.

The first demonstration of reversible symmetry lowering phase transformation with heating.

Come and discover the world of nuclear science at ANSTO - book a school tour in Sydney today.

On the international stage amongst the leading nuclear nations of the world, Australians hold its own. This status has been earned by ANSTO’s seventy-year history of safe nuclear operations, the application of nuclear science and technology to benefit society and nuclear stewardship role in Australia.

A large international team has provided an understanding of how nanoscale interactions affect the thermal stability of a type of next generation organic solar cells.

The BRIGHT Project will expand the beamline infrastructure of the Australian Synchrotron to increase both its capacity and capabilities.

Particle Induced X-ray Emission (PIXE) is a powerful and relatively simple analytical technique that can be used to identify and quantify trace elements typically ranging from aluminium to to uranium.

Professor Peter Lay from the University of Sydney has been awarded the Australian Synchrotron Lifetime Contribution Award by ANSTO, the Australian Nuclear Science and Technology Organisation.

The mining industry is set to benefit from a new Australian capability that uses a nuclear scanning technique to detect the presence of precious metals and strategic minerals in a core sample.

An international team led by scientists at City University of Hong Kong has found flexible metal-organic framework (MOF) with one-dimensional channels that acts as a “molecular trapdoor” to selectively adsorb gases, such as carbon dioxide, in response to temperature and pressure changes.