
FAQs on the Mo-99 Manufacturing Facility
Frequently asked questions on the Mo-99 Manufacturing Facility and the ANSTO Nuclear Medicine project.
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Frequently asked questions on the Mo-99 Manufacturing Facility and the ANSTO Nuclear Medicine project.
ANSTO, the home of Australia’s nuclear science expertise and the Powerhouse Museum, home of Australia’s excellence and innovation in the applied arts and sciences will collaborate on research projects, establish an Indigenous Cultural Research Scholarship and combine efforts on STEM outreach activities.
This scholarship recognises outstanding ability and promise in the field of nuclear science and technology, specifically as it applies to nuclear energy. Successful applicants will demonstrate a history of interest in nuclear energy and a desire to continue this interest.
National Science Week is a time to celebrate science and the important role national science agencies like ANSTO play in delivering outcomes that benefit all Australians.
The Biosciences team undertakes the radiolabelling of chemical, biochemical. biological or material vector for the purpose of radiotracing in living systems.
Detailed data on ANSTO electricity use and CO2 emissions for FY2022 - FY2023
The Australian Neutron Beam Users Group (ANBUG) presented annual awards to accomplished neutron scientists at the combined ANSTO User Meeting - AUM2023 held in late November 2023.
ANSTO Synroc® is constructing an Australian radioactive waste treatment facility for the by-products of Molybdenum-99 (Mo-99) production.
Researchers from Murdoch University and associated collaborators are using ANSTO’s unique nuclear capabilities to gain detailed information about how wheat crops take in administered micronutrients to maximise their efficient use.
ANSTO neutron diffraction scientist was among the experts presenting on next-generation batteries at South Korean conference.
Proposals at the Australian Centre for Neutron Scattering and National Deuteration Facility.
Soft x-rays are generally understood to be x-rays in the energy range 100-3,000 eV. They have insufficient energy to penetrate the beryllium window of a hard x-ray beamline but have energies higher than that of extreme ultraviolet light.