PhD Scholarship in Advanced 2D Nanochannel Membranes

This project pioneers the development of advanced nanofiber membranes with precisely engineered 2D nanochannels, optimizing mechanical strength, chemical stability, and ion selectivity. By leveraging 2D nanomaterials as sacrificial templates, the membranes exhibit low internal resistance and enhanced ion transport efficiency, significantly improving energy harvesting performance.

The development of advanced nanofiber membranes  with engineered 2D nanochannels represents a transformative approach to addressing critical challenges in energy harvesting and carbon capture. By overcoming the limitations of existing nanomaterials—such as poor nanochannel structure, low chemical stability, and high internal resistance—this project introduces an innovative platform for efficient ion transport and energy conversion. The incorporation of 2D nanomaterials as sacrificial layers enables precise control over nanochannel architecture, ensuring enhanced selectivity, mechanical robustness, and stability. These features are crucial for improving the efficiency of renewable energy technologies, directly contributing to the global transition toward sustainable and clean energy solutions. Furthermore, by bridging the gap between nanomaterials science and energy harvesting applications, this research paves the way for next-generation membranes with high-performance capabilities, unlocking new avenues for scalable and efficient energy conversion.

$107,658

Applications are now open.

30/05/2028

1 (one)

Applicants must meet RMIT University's minimum requirements for admission to a Doctor of Philosophy (PhD) program and should hold an Honours degree (First Class) or an equivalent standard Master's degree with a substantial research component. 

  • The successful applicant will have an undergraduate or postgraduate degree in Materials Science, Chemistry, Chemical Engineering, Mechanical Engineering, or related areas.
  • Applicants must be able to demonstrate strong research and analytical skills
  • Some prior experience with material synthesis and characterisation is desirable

Please contact key contact Prof Weiwei Lei, to discuss your suitability and the project requirements. Include your CV and enter the title of the project in the subject line by 1 June 2025, or earlier.

Benefits

  • The PhD will be of 3 years duration (with possible extension to 3.5 years), with a stipend/scholarship of $35,886 per annum
  • Access to state-of-the-art synthesis and characterisation facilities
  • Opportunities for participation in scientific conferences
  • Mentorship to support long-term career goals
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