There are key challenges for Australia as we transition to renewables. We've helped identify critical areas of research to support our transition.

Power system operators around the world face challenges in their transition to renewable energy sources. Some of them are global and some are local.

That’s why we’re keen to be part of an international consortium for research on power system transformation.

Managing our distributed energy resources

Key challenges for Australia include our ageing infrastructure, the need for investment in transmission and distribution, and the increasing complexity of more distributed energy resources (DERs) connected to the grid.

DERs generally refer to small-scale generation or demand resources that are connected to the distribution networks. In Australia, household rooftop solar currently takes the highest portion in DERs.

Electric vehicles (EVs) are another typical type of DER. In the short term, high night-time demand for EV charging may require better management. When doing so, we want to avoid voltage or congestion issues in distribution networks. But the future use of vehicle-to-grid technology will enable the stored energy in an EV to be pushed back into the grid. The capacity of this form of DER may become greater than rooftop solar within 10 years. 

A CSIRO solar powered electric vehicle at a charging point. 
Australia's transition to renewables.
An EV is a type of distributed energy resource (DER). Credit: Michael Evans.

But DERs can be invisible to power system operators, who may only see the change in net demand they cause. For example, when DERs feed electricity back into the grid, it can look like the area is using less electricity. This makes operating the power system very complex for operators and network planners.

We need research to determine the specifications, measurements and forecasts that will ensure DERs are visible. Additionally, we need organisational and regulatory changes to support DERs. Better operation and control techniques, and communication infrastructure, will also be required.

A consortium for research on power system transformation

Australia is leading the way on DER uptake. Given this, it makes sense that we also explore how to effectively manage these ‘next wave’ technologies.

This is why we have joined the Australian Energy Market Operator (AEMO) and system operators from around the world. Together we’re forming the Global Power System Transformation (G-PST) Consortium. The G-PST Consortium identified critical research areas to support the transition to advanced low-emission power systems globally. These are the first six topics in the graphic below.

Ten boxes highlighting research areas for Australia's transition to renewables. 
Topic 1: Inverter design
Topic 2: Stability tools and methods
Topic 3: Control room of the future
Topic 4: Planning
Topic 5: Restoration and black start
Topic 6: Services
Plus: Australian-specific research areas
Topic 7: Architecture
Topic 8: Distributed energy resources (DERs)
Topic 9: DERs and stability
Highlighting research to ensure a smooth power system transformation..

We worked with others to adapt these foundational research questions for the Australian context. These areas support the interests of Australian consumers and seize opportunities for Australia to become a leader in this field of research and technology. The Australian-specific research areas are:

  • Architecture: for coordinating new technology, regulatory approaches, market design and the distribution/transmission interface
  • Distributed Energy Resources (DERs): addressing challenges and opportunities of a high level of DERs in controlling and operating a power system
  • DERs and Stability: modelling and analysing DER responses to ensure power system security under very high DER penetration

A powerhouse of knowledge

Australia has always been an early adopter of new technologies and an innovator of existing ones. We have a unique opportunity to ensure Australia’s future energy security and reliability, while creating a stable energy sector to attract investment. By embracing this challenge we can build a powerhouse of knowledge that is exportable to the world. Better yet, it helps meet our emission reduction commitments.


  1. Hi.
    I wonder if
    … now that we are investing in and moving to batteries as a means of storing excess electrical energy …

    Could we capture lightning?

    Given that we have legislated for and invested in all manner of protective lightning infrastructure on land, at sea and in the air … do you think that we could invent a capacity to redirect any captured energy from “earthing” to storage?

  2. DERs are invisible. There is no indication on my power bill of the electricity I directly consume from my solar panels. One needs to subtract the feed in from the inverter output to calculate this figure. So do we need a smarter inverter with tells the grid how much electricity it is producing?

  3. Nice snapshot of wonderful career opportunities for smart young grads. So much to do, so little time etc.
    To the point about knowing what DERs are doing, surely the energy retailers have this info so shouldn’t be a stumbling block, unless they don’t want to open their data files for some reason.
    Bookmarking this article so I can track progress reports against it.

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