Planetary formation process remain a unresolved issue in our understanding of the universe. Direct observation  is needed and can only be accomplished in the MIR with cancelation of glare from the host star. The quest for earth like planets faces the same challenge. MIR integrated devices can accomplish this and ANU leads the world in this field.

The idea of equilibration is ubiquitous throughout nature. Out-of-equilibrium dynamics – be it caused by a disturbance and subsequent “rethermalisation”, or by passing through a phase transition – is a difficult question to characterise. This project looks at both equilibration and phase transitions in a Bose-Einstein condensate of metastable helium atoms.

The traditional approach transport simulation is to measure cross sections and feed them into a code package. However, some cross sections are very difficult to both measure and calculate. The "inverse swarm problem" seeks to extract these cross sections from transport measruements such as current profiles or annihilation rates.

Low temperature plasmas are being exploited for new medical therapy techniques and in engineering applications in agriculture. This project explores the fundamental behaviour of how electrons penetrate a liquid surface, such as the skin of the body.

We create the coldest stuff in the Universe – a Bose-Einstein condensate (BEC) – by laser-cooling helium atoms to within a millionth of a degree Kelvin. At these extremely low temperatures particles behave more like waves.  You will use the BEC to study fundamental quantum mechanics and for applications like atom interferometry.

This is a multi-faceted project which can be adapted to students at the honours level and above. A number of possibilities exist to perform experiments directed towards improving the use of positrons in medice, mostly focussed on Positron Emission Tomography (PET).

Using the atomic and molecular physics positron beam at the ANU, the student will undertake measurements of positron scattering from simple targets, providing high accuracy data to test recent theoretical calculations.

Antiparticles and antimatter have progressed from theory and science fiction to become an important and exciting area of pure and applied science. This fundamental atomic physics project will investigate how antimatter and matter interact by experimentally studying the interaction of positrons (the electron anti-particle) with trapped ultracold rubidium atoms.

This is a multi-faceted project which can be adapted to students at the honours level and above. A number of possibilities exist to perform experiments directed towards improving the use of positrons in medice, mostly focussed on Positron Emission Tomography (PET).

Using lasers to clean and preserve structures is not new, but the use of ultrashort pulses shows some significant advantages and has been shown to be much less damaging. Help preserve an Australian icon for future generations and have fun blowing things up with lasers in the process!

For quantum technologies to transition to real-world applications, there are a multitude of engineering challenges to be solved. Using diamond NV centres, our group is developing small-scale quantum computers, and quantum microscopes sensing electric and magnetic fields down to the nanoscale. Available project themes include instrumentation, experiment control, machine learning, and optimal control. 

This project aims to synthesise novel metastable material phases by ultrafast laser-induced microexplosion confined within a material’s bulk.

This project aims to invent and apply quantum microscopes to solve major problems across science.

Planetary formation process remain a unresolved issue in our understanding of the universe. Direct observation  is needed and can only be accomplished in the MIR with cancelation of glare from the host star. The quest for earth like planets faces the same challenge. MIR integrated devices can accomplish this and ANU leads the world in this field.

Using lasers to clean and preserve structures is not new, but the use of ultrashort pulses shows some significant advantages and has been shown to be much less damaging. Help preserve an Australian icon for future generations and have fun blowing things up with lasers in the process!

This project aims to synthesise novel metastable material phases by ultrafast laser-induced microexplosion confined within a material’s bulk.

In this project you will develop a quantum memory for storing light at 1550 nm using erbium doped crystals.

In this project you will demonstrate the storage of quantum entangled states of light using quantum memories based on rare-earth doped crystals.

This project aims to develop a photonic quantum processor based on a planar waveguide architecture incorporating rare-earth doped crystals.

Low temperature plasmas are being exploited for new medical therapy techniques and in engineering applications in agriculture. This project explores the fundamental behaviour of how electrons penetrate a liquid surface, such as the skin of the body.

This project aims to discover and study defects in diamond and related materials that are suitable for quantum technology.

The idea of equilibration is ubiquitous throughout nature. Out-of-equilibrium dynamics – be it caused by a disturbance and subsequent “rethermalisation”, or by passing through a phase transition – is a difficult question to characterise. This project looks at both equilibration and phase transitions in a Bose-Einstein condensate of metastable helium atoms.

We create the coldest stuff in the Universe – a Bose-Einstein condensate (BEC) – by laser-cooling helium atoms to within a millionth of a degree Kelvin. At these extremely low temperatures particles behave more like waves.  You will use the BEC to study fundamental quantum mechanics and for applications like atom interferometry.

In this project you will develop a quantum memory for storing light at 1550 nm using erbium doped crystals.

This project aims to invent and apply quantum microscopes to solve major problems across science.

This project aims to engineer diamond quantum computers and communication networks.

In this project you will demonstrate the storage of quantum entangled states of light using quantum memories based on rare-earth doped crystals.

For quantum technologies to transition to real-world applications, there are a multitude of engineering challenges to be solved. Using diamond NV centres, our group is developing small-scale quantum computers, and quantum microscopes sensing electric and magnetic fields down to the nanoscale. Available project themes include instrumentation, experiment control, machine learning, and optimal control. 

This project will construct a 3D optical lattice apparatus for ultracold metastable Helium atoms, which will form an experimental quantum-simulator to investigate quantum many-body physics. A range of experiments will be performed such as studying higher order quantum correlations across the superfluid to Mott insulator phase transition.

Antiparticles and antimatter have progressed from theory and science fiction to become an important and exciting area of pure and applied science. This fundamental atomic physics project will investigate how antimatter and matter interact by experimentally studying the interaction of positrons (the electron anti-particle) with trapped ultracold rubidium atoms.

This project aims to develop a photonic quantum processor based on a planar waveguide architecture incorporating rare-earth doped crystals.