β Funded (Competition)
renewable energy
photovoltaic systems
energy efficiency
hydrogen production
concentrated photovoltaics
modeling and simulation
solar energy
thermal energy
Develop and optimize cutting-edge CPVT systems to transform solar energy into efficient hydrogen production. Employ advanced simulation and multiphysics modelling to overcome tropical solar challenges and reduce energy costs.
AI-generated overview
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Why This Research Matters
This research advances the efficiency and cost-effectiveness of solar hydrogen production by harnessing thermal energy typically wasted in photovoltaic systems. It supports global decarbonisation goals and enables renewable energy solutions suitable for tropical and equatorial regions with significant diffuse solar radiation.
Concentrated Photovoltaics
Solar Hydrogen Production
Thermal Energy Recovery
Multi-Physics Modelling
Renewable Energy Systems
Techno-Economic Assessment
Project Description
Green hydrogen produced via solar-powered water electrolysis is vital for decarbonisation. Conventional PV-electrolyser systems waste heat energy, reducing efficiency. CPVT systems capture both electrical power and high-grade thermal energy from sunlight, offering enhanced efficiency. This project focuses on designing and optimising CPVT systems tailored to solar hydrogen production, addressing challenges in tropical climates with high diffuse radiation. You will model, simulate, and optimise CPVT configurations integrating optical, thermal, electrical, and electrochemical processes using advanced multiphysics tools like MATLAB, Python, ANSYS, and COMSOL. Tasks include thermal management strategies, photovoltaic cooling, parametric performance studies, and techno-economic assessments. Experimental validation opportunities are available. Deliver high-efficiency CPVT architectures optimised for variable irradiance, identify thermal energy utilisation pathways to boost electrolyser performance, and produce comprehensive system-level models and economic analyses supporting scalable solar hydrogen production. This research enables more efficient solar hydrogen generation by recovering wasted thermal energy, reducing costs, and promoting renewable energy adoption in tropical regions. The outcomes will advance sustainable energy technology and contribute to global decarbonisation efforts.
Entry Requirements
First class in Engineering or Science degree (preferably Chemical, Mechanical, Energy Engineering, Physics, Chemistry or related), strong English skills, interest in renewable energy or hydrogen production, solid knowledge in thermodynamics/heat transfer/electrochemistry, modelling experience preferred, strong analytical skills, ability to work independently and collaboratively.
How to Apply
Contact Prof. Chong Meng Nan at Chong.Meng.Nan@monash.edu with your cover letter detailing skills and experience, CV including education and publications, and English proficiency evidence if applicable. If deemed suitable, complete an Expression of Interest including a research proposal. Note: From May 2026, application instructions will be updated and the current EoI process will end.
Supervisor Profile
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Prof. Meng Nan Chong
Monash University Malaysia, Engineering and Information Technology
Prof. Meng Nan Chong specializes in the development and optimization of renewable energy systems, particularly concentrated photovoltaic-thermal technologies for solar hydrogen production. His research integrates optical, thermal, and electrochemical modelling to improve system performance under diverse climatic conditions. He employs advanced multiphysics simulations and machine learning techniques to drive innovation and economic feasibility in sustainable energy applications.