Efficient, stable and cost-effective next generation solar cells

Project scope

• Performed as on campus, lab work.
• Collaborators include both industry and academics.
• Suitable for School of Engineering research-based courses, such as: ENGN2706, or ENGN4706.
• Suitable for both domestic and international students.
• Objectives:
  • Engineer stable perovskite compositions and robust device architectures.
  • Optimise interfaces and charge transport layers to minimise recombination losses.
  • Develop scalable, industry-compatible fabrication processes for large-area modules.
  • Minimise reliance on expensive or critical raw materials.
  • Validate performance and stability through standardised testing protocols.

Project description

Perovskite solar cells have emerged as a promising next-generation technology due to their high efficiency, low-temperature processing, and compatibility with scalable manufacturing. When combined with silicon in tandem configurations, they offer a pathway to exceed 30% efficiency. However, challenges remain in long-term stability, large-area scalability, and cost-effective production. Addressing these challenges is essential to enable commercial deployment and maximise the impact of next-generation solar technologies.

This project aims to develop highly efficient, stable, and cost-effective next-generation solar cells based on perovskite and perovskite–silicon tandem technologies. By combining advanced materials engineering, interface optimisation, and scalable manufacturing processes, the research targets efficiencies exceeding 30% while maintaining long-term operational stability under real-world conditions.

A strong focus is placed on reducing production costs through low-cost deposition techniques and minimising the use of scarce or expensive materials. The project also emphasises scalable module fabrication to bridge the gap between laboratory-scale devices and commercial deployment. The expected outcomes will contribute to lowering the levelised cost of electricity (LCOE) and strengthening Australia’s capability in advanced solar manufacturing.

Deliverables

• This project will deliver more efficient, stable, and affordable next-generation solar technologies, helping to reduce the cost of clean electricity.
• By enabling scalable manufacturing and strengthening domestic capability in advanced photovoltaics, it will support industry growth, enhance energy security, and contribute to national and global decarbonisation efforts.

Information for applicants

The ideal candidate will have a strong interest in pushing the boundaries of solar cell technology, specifically in Perovskite/Silicon tandem cells. This project can be full-time or part-time, by arrangement.

Essential skills and background

• First-year physics and electronics courses

Desirable requirements

• Essential knowledge about physics and electronics

Student takeaways

• Students will gain hands-on experience in optoelectronic research, fostering a comprehensive understanding of next-generation photonic technologies.

How to apply

If you are interested, please email an Expression of interest, along with a copy of your CV (resume) and transcript to the project supervisor.