Energy Transitions Engineering

Engineering the path to clean energy

Energy transitions engineering is at the heart of the global movement toward a sustainable future.

This specialisation empowers you to understand energy systems at an advanced level, adopt cutting-edge technologies – and shape policies that drive the shift away from fossil fuels.

Specialisation overview

Energy transitions engineering equips you with the knowledge and skills to drive the global shift from fossil fuels to sustainable energy sources. You will delve into advanced topics such as renewable energy technologies, energy storage systems, smart grids, and energy policy.

With an emphasis on practical applications and industry relevance, this specialisation will empower you to make a meaningful impact on the energy landscape, contributing to the successful transition to sustainable energy resources and systems in Australia and beyond.

It covers both the fundamental principles and the latest advancements in the field, ensuring you are well-versed in contemporary and emerging technologies. This specialisation prepares you for careers in the rapidly growing sectors of renewable energy, energy efficiency, and sustainable infrastructure.

See the course map and handbook for an outline of the course structures, units and electives.

Careers in Energy Transitions Engineering

Your expertise in energy transitions engineering will open doors across diverse sectors, including:

Developing renewable energy generation and storage projects
Smart grid design and optimisation
Energy efficiency and sustainability consulting
Designing policy for Government and regulatory bodies
Research and development in clean energy technologies
Global organisations advancing climate action

With advanced skills and practical expertise, you’ll be prepared to address some of the world’s critical energy challenges. You might:

Engineer innovative solar, wind or hydroelectric systems
Develop energy storage solutions to support the clean energy transition
Create policies driving renewable energy adoption globally
Lead sustainable infrastructure projects integrating advanced energy systems
Design smart grids for reliable, efficient energy distribution
Advise corporations on achieving net-zero goals
Turn industrial by-products into clean, renewable energy sources

What you will learn

You’ll build a solid foundation in energy transitions engineering with these core units:

Advanced engineering data analysis

Explore probabilistic concepts in more depth.
Industry experience*

Learn through work placement as prescribed by the Faculty of Engineering.

*Subject to placement availability
Smart grids

Develop comprehensive knowledge of smart grid operation.

Then, you’ll expand your skills by selecting one of the enhancement units below:

Engineering project risk management

Examine risk concepts in engineering and develop a critical understanding of systematic risk management principles.
Mechanical systems design

Take a holistic approach to engineering design, focusing on system-wide solutions rather than individual components.
Monash Innovation Guarantee – Postgraduate (MIG–P)

Equip yourself with the skills and mindset to drive

Finally, you’ll tailor your expertise by selecting 4 of the following specialist core units:

Biomass and biorefineries

Examine biomass engineering, biotechnology and separation processes, focusing on kinetics, catalysis and selectivity.
Sustainability and innovation

Apply industrial ecology to reduce waste, boost profitability and create sustainable biomass materials.
Engineering systems and performance analysis

Integrate solid and fluid mechanics to understand their roles in engineering system performance.

Energy efficiency and sustainability engineering

Learn how to design sustainable, efficient systems for low-energy buildings.
Renewable energy systems

Discover how thermodynamics drives renewable energy systems, influencing design, efficiency and applications.
Advanced photovoltaics and energy storage

Delve into the materials and principles behind energy production, storage and conversion.