Simulations of thermal performance of solar photovoltaics at module and sub-array level

Summary

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The overarching aim of our research is to improve the feasibility, efficiency, and performance of gigascale solar photovoltaics through simulations of thermal effects both at the full field scale and at the module and array scale.

Supervisor

Professor Chengwang Lei.

Research location

Civil Engineering

Synopsis

We are looking for a PhD candidate to work on simulations of thermal performance of solar photovoltaics at module and sub-array level. The candidate will develop a numerical model to simulate the thermal behaviour of a photovoltaic array. The candidate will validate these models against experimental data. The model must consider the effects of free convection, forced convection, radiation, and moisture transport on the array under various conditions and orientations. This model will then be used to explore optimisation strategies of the panel and array design, with the goal being to develop a new thermally efficient photovoltaic array.

The project will employ the commercial Computational Fluid Dynamics (CFD) software COMSOL Multiphysics or other commercial CFD package if appropriate. The candidates will be trained in CFD best practice, including model building, meshing and validation, preparing them for a career in both academia and industry. In particular, successful candidates will gain strong capabilities in modelling-for-design with industry exposure and collaboration with leading start-ups.

Additional information

Successful candidates must:

Have a Bachelor degree (1st class honours equivalent) or Masters degree in Engineering or Science
Have evidence of a completion of a major research project, e.g. an Honours degree (First Class), a Master's degree, a research assistant job, or equivalent industry experience.
Have a strong interest in computational fluid dynamics and experience in physical sciences (physics, maths, computer science).
Demonstrated proficiency in fluid mechanics, numerical methods for partial differential equations and the finite element/volume method is highly desired but not essential.
Applicants must be able to demonstrate strong written and oral communication skills (including the University requirements for English language proficiency) and the capacity to work independently and as part of a team.

Offering:

A scholarship for 3.5 years at the RTP stipend rate (currently $40,109 in 2024). International applicants will have their tuition fees covered.

How to apply:

To apply, please email chengwang.lei@sydney.edu.au the following:

CV
academic transcripts

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Opportunity ID

The opportunity ID for this research opportunity is 3435