The IFM is home to a custom-designed, state-of-the-art plasma laboratory, which equips researchers with cutting-edge tools to accelerate outcomes.
We are using plasma to change the properties of one of the active materials in solar cells so they can produce more current from the sun.
GAYATHRI DEVI RAJMOHAN
DEAKIN PHD STUDENT
Advanced plasma facility
custom-designed facility combines physical vapour deposition with plasma-enhanced chemical vapour deposition in a dual chamber system. In the PVD
chamber, a Torus Magnetron sputter source and the substrate rotation
feed-through provide the best film uniformity. It also has a high-strength
magnet assembly for sputtering magnetic materials.
also includes a substrate heater that allows samples to be heated to 800°C and
DC/RF biasing to control the direction of nanomaterial growth. The samples can
be horizontally transferred from one chamber to the other via a power probe
(without exposure to air). Its multi-functional capabilities enable the dry
fabrication of nanostructures (both top-down and bottom-up), their surface
treatment, and multi-layer thin films & nanostructuring of materials in one
Plasma plus thermal system
combines plasma and thermal energy to fabricate nano-semiconductors. It can be
used for nano-structuring, element doping, and surface cleaning/functionalization.
Several plasma sources have been designed to enable different types of
Stirring plasma system
aiming at the surface functionalization of nanopowders or other forms of
nano-materials (nanotubes etc.). This system addresses the challenge of
achieving uniform treatment with a high functional group density and easy
handling. It enables uniform surface functionalization of nanopowders.
Gases/monomers plasma system
electrode-less reactor enables the controllable and selectable functionality of
surfaces or membranes with high stability, on larger samples of any shape. The
choice of gases/monomers, pressure, power and duty cycle allows a great degree
of control over the polymer and surface functional groups.
Liquid plasma system
plasma is an exciting technology for applications in biomedicine, nanoscience,
and agriculture. The challenge has been to achieve selectivity for the desired
reactive species, and efficient production of the required species in liquid for
developed a plasma gas bubble-in-liquid method using a nanosecond pulse
generator with different gases, and have achieved high production of selectable
reactive species. The new technology has been applied to milk sterilization,
enhanced plant growth, wastewater treatment, and nanomaterial fabrication.
Commercial atmospheric pressure plasma system
prefers to avoid batch treatments in favour of higher throughput continuous
Vacuum plasmas necessarily involve batch treatment in a closed
container. However, flat and flexible surfaces, such as sheet materials and
textile fabrics, can be treated at atmospheric pressure if they are passed
through narrow slits into a zone where a suitable gas is introduced.
such a machine from Sigma Technologies International that can process fabrics,
up to 500mm in width, using various gases in a glow discharge.
Senior Research Fellow Dr Jane Dai +61 3 5227 2427 Email Dr Dai