Power is critical for space missions and Internet Of Things (IoT) networks. Join the team investigating photovoltaic and betavoltaic devices for their huge potential in powering off-Earth energy systems.

Research goals

We are investigating photovoltaic and betavoltaic devices for their huge potential in powering off-Earth energy systems.

ChallENG Area

Vertically Integrated Projects

Research Areas
  • Photovoltaics
  • Betavoltaics
  • Space Science
  • Power Systems
  • Photovoltaics
  • Data science
  • Internet of Things
  • Laser physics
  • Radio-isotopes

United Nations Sustainable Development Goals

  • Good Health and Well-being: SDG3
  • Affordable and Clean Energy: SDG7
  • Decent Work and Economic Growth: SDG8
  • Industry, Innovation and Infrastructure: SDG9
  • Sustainable Cities and Communities SDG11
  • Life on Land: SDG 15

The research includes:

  • Developing photovoltaics (PV), betavoltaics (BV) and laser beaming systems for space applications 
  • Designing flexible PV and BV energy harvesting devices and integrated IoT solutions
  • Enhancing PV efficiency and stability in space 
  • Improving BV device efficiency through new semiconductor materials that have greater energy conversion and increased radiation resistance 
  • Designing the ‘solar (power) ring’ device to power IoT networks
  • Designing and fabricating PV and BV devices for IoT applications
  • Designing and fabricating integrated power ring prototypes
  • Researching radiation tolerance of PV devices
  • Investigating the performance of several types of solar cells under low light intensities, different spectra and a wide range of temperatures
 
  • Investigating new materials and their efficiencies 
  • Fabricating solar cells in lunar-like environments 
  • Improving the operation, transfer efficiency and pointing accuracy of laser power beaming
  • Improving welding of space solar cell interconnects
  • Integrating different power systems for space missions to the Moon and for LEO CubeSats 
  • Developing power systems for IoT devices
  • Developing database and data analysis capabilities for completed IoT solutions
  • Addressing the EQE (external quantum efficiency) artefacts in multijunction solar cells
  • Undertaking vacuum deposition of solar cell materials under conditions similar to those on the Moon 
  • Combining antennas and solar cells for dual use on satellites

Credit

✔ 6 UoC per course

Industry Partners

Extraterrestrial Power
1366tech

  • Photovoltaics engineering 
  • Nuclear engineering 
  • Mechanical engineering 
  • Electrical engineering 
  • Electrical circuit design 
  • Wireless sensor networks 
  • Bio-engineering 
  • Physics

Team Academic Lead

Prof. Gavin Conibeer

School of Photovoltaics and Renewable Energy Engineering

+612 9385 4381

g.conibeer@unsw.edu.au

A/Prof. Xiaojing Hao

School of Photovoltaics and Renewable Energy Engineering

+612 9385 4381

xj.hao@unsw.edu.au

A/Prof. Ziv Hameiri

School of Photovoltaics and Renewable Energy Engineering

+612 9385 9475

g.conibeer@unsw.edu.au

A/Prof. N.J. Ekins-Daukes

School of Photovoltaics and Renewable Energy Engineering

+612 9385 7283

xj.hao@unsw.edu.au

A/Prof. Jay Katupitiya

School of Mechanical & Manufacturing Engineering

j.katupitiya@unsw.edu.au