
Education Resources
Showing 51 - 60 of 68 learning resources…
Year 12 Physics
Participate in live radiation demonstrations, cover syllabus content and visit ANSTO virtually during our online depth study classes for Year 12 Physics.
- Participate in live demonstrations to review the properties of alpha, beta and gamma radiation.
- Learn about radioactive decay, half-life and methods of detecting radiation, including with a cloud chamber.
- Define and understand applications of fission, fusion, binding energy and mass defect, and investigate the structure and function of the OPAL multipurpose reactor.
- Investigate the role and operation of particle accelerators at ANSTO.
Cost: $90 per class.
Year 11 Chemistry
Participate in live radiation demonstrations, cover syllabus content and visit ANSTO virtually during our online depth study classes for Year 11 Chemistry.
- Investigate properties of different radioisotopes and learn about their uses in medicine, industry and environmental research.
- Consider the scientific method and gather data during a live radiation experiment.
- See some of Australia's largest scientific infrastructure, including the OPAL multipurpose reactor.
Cost: $90 per class.
Year 12 Investigating Science
Participate in live radiation demonstrations, cover syllabus content and visit ANSTO virtually during our online depth study classes for Year 12 Investigating Science.
- Participate in live demonstrations of the properties of radiation, shielding and technologies used to detect radiation.
- Learn about the OPAL multipurpose reactor, the use of nuclear medicine and their impact on society.
- Discuss the public perception of nuclear science and the regulation of scientific research.
Cost: $90 per class.
Year 9-10 Radioactivity and its Applications
Students investigate the production of nuclear medicines in the OPAL multipurpose reactor, the use of nuclear medicines to diagnose and treat disease, and the science behind working safely with radiation.
This program is designed to address content and skill outcomes in the Year 9 and Year 10 Science Australian Curriculum and NSW syllabuses.
Cost: $90 per class.

Australian Synchrotron: Discoveries with Light Workbook
This guide covers concepts such as interaction of light and energy, nuclear physics, and radioactivity through the workings and applications of the Australian Synchrotron
Student workbook
Pre-2018 Year 12 Physics workbook
This workbook was designed for the old pre-2018 Year 12 Physics NSW syllabus, 9.6 Medical Physics and 9.8 Quanta to Quarks
Student workbook
Pre-2018 Year 12 Chemistry workbook
This workbook was designed for the old pre-2018 Year 12 Chemistry NSW syllabus, 9.2 Production of Materials
Student workbookNuclear remote online Laboratory (FarLabs)
Freely Accessible Remote Laboratories (FarLabs) have developed a nuclear remote online laboratory that schools can use to perform experiments with nuclear radiation.
The “Turntable” experiment illustrates the penetrating power of different forms of radiation. Students can choose to pair one of four sources (alpha, beta, gamma, and unknown) with one of five absorbers, including no absorber at all. A live data feed shows the count rate from a Geiger counter placed above the selected radioactive source.
The "Inverse Square Law" experiment demonstrates how the amount of radiation decreases with increasing distance from a radiation source. Students can access a live data feed showing the count rate from a Geiger counter placed at a selected distance away from a radiation source.
Teachers need to register using this link before using the remote laboratory. Please direct all enquiries to p.atsikidis@latrobe.edu.au.
We highly recommend testing this remote laboratory on your school’s equipment before planning a lesson with your class.
The FarLabs project is led by the Department of Physics at La Trobe University in collaboration with James Cook University, Curtin University, Quantum Victoria, V3 Alliance, and ANSTO.

Scientific Models of Nuclear Fission
This workbook examines different scientific models of nuclear fission.
Students solve problems by:
- using modelling (including mathematical examples) to explain phenomena,
make predictions and solve problems using evidence from primary and
secondary sources
- using scientific evidence and critical thinking skills to solve problems
Students will:
- model a nuclear chain reaction
- apply this model to explain how a nuclear chain reaction occurs
- explain the advantages and limitations of the model
- visualise what is meant by nuclear fission
- use critical thinking skills to improve the model
ANSTO XR
The Free ANSTO XR app uses a mix of AR and VR to transport you to the scale of an atom and discover the world of protons, neutrons, and electrons.
See how synchrotron light generated from super accelerated electrons can give scientists x-ray vision.
See how the ANSTO periodic table poster works with Augmented Reality.