Quantum Gases

At ultracold temperatures below 1 microkelvin, gases of atoms exhibit quantum phenomena on a macroscopic scale. Bose-Einstein condensates – the coldest matter in the Universe – consist of millions of atoms, all in the same quantum state.

This new phase of matter is described by a macroscopic quantum wavefunction up to 1 mm in size. BECs are an exquisitely sensitive platform for exploring myriad physics: from condensed matter analogues to probing changes of fundamental constants, to making precise measurements of forces and fields.

The quantum gases group at Monash explores topological defects in multicomponent superfluids, and precise control and measurement of quantum gases with magnetic order. Our state of the art laboratories occupy the ground floor of the New Horizons building.

A research project in quantum gases is an opportunity sharpen your experience in areas including computer simulations, theoretical quantum physics, optics and imaging, electronics (wideband control, power, optoelectronics), laser design/construction, and experiment control software. We offer students experimental, theoretical, and hybrid research projects.

Quantum Gases
An ultracold cloud of 5 billion rubidium atoms at a temperature of 0.0003 K. The cloud is 1 cm across, and is being levitated by lasers in a vacuum one quadrillion times lower pressure than Earth's atmosphere. It is further cooled to 100 nK, where it undergoes a phase transition to a Bose-Einstein condensate, the coldest matter in the Universe.
Photo of Dr Russell Anderson Dr Russell Anderson
  • Spinor Bose-Einstein condensates
  • Multi-component superfluidity
  • Trapped atom interferometry
  • Wavefunction engineering
  • Coherent control of ultracold collisions
Photo of Professor Kristian HelmersonProfessor Kristian Helmerson
  • Quantum turbulence and superfluidity
  • Bose gases in two-dimensions
  • Emergent phenomena
  • Mixed-species quantum gases
  • Vortex imaging using tracer particles
Photo of Dr Jesper Levinsen Dr Jesper Levinsen
  • Many-body theory of Fermi gases
  • Impurities in Fermi/Bose gases
  • Quantum gases in confined geometries
  • Few-body physics
  • High temperature virial expansion
Photo of Dr Meera Parish Associate Professor Meera Parish
  • Dipolar gases in low dimensions
  • BCS-BEC crossover
  • Spin-imbalanced Fermi gases
  • Bose-Fermi mixtures
  • Dimensional crossovers
Photo of Dr Lincoln TurnerDr Lincoln Turner
  • Spinor Bose-Einstein condensates
  • Precise measurement of magnetic fields
  • Wavefunction engineering
  • Ultracold spintronics and magnonics
  • Quantum magnetism