All posts by Richard Musgrove

Closing the gaps in Australia’s future science workforce

Mismatched student demand and industry need are shrinking university enrolments, completions and critical workforce pipelines.

Urgent reforms are needed to reverse declining university enrolments and completions, particularly in undergraduate and postgraduate climate, geoscience, materials and agriculture. Such disciplines also face declining research and development (R&D) spending, low patent applications and projections of falling workforces.

Reversing the decline

The recent Australian Science: Australia’s Future 2035 report highlights capability gaps in science from Year 12, through vocational training and university, to the workforce.


Gaps in Australia’s capability at a glance. Image: Australian Science: Australia’s Future 2035 report, page 31.
Professor Jacqui Ramagge, President of the Australian Council of Deans of Science. Image: Supplied.

In the report, traffic lights tell us green is going well; orange, not so well; and red, backwards. Some green is there, but it’s largely overwhelmed by orange and red.

“The mismatch of student demand with industry needs is a long-standing problem,” says Professor Jacqui Ramagge, President of the Australian Council of Deans of Science. There is no easy solution.

Agility is a must

How can we address this mismatch? “Agility”, says Professor Graciela Metternicht, Dean of Science, Western Sydney University.

Professor Graciela Metternicht, Dean of Science, Western Sydney University. Image: Supplied.

Early detection of changing employer demand is needed, then rapid adjustments in education, workforce and R&D. 

In 5 years, Metternicht contends, better data and clearer signals should guide students and employers on emerging workforce needs. In 10, Australia should have a balanced science workforce fed through a largely domestic PhD pipeline, aligned with employer priorities.

Ideally, science capability should be a planned, coordinated, and sustained element of national infrastructure, not dependent on discretionary spending, she adds. 

Universities need signals from industry

Driving these changes is complicated, given the many players and unknowns.

One challenge is the ever-looming economic pressures on students. Universities could run more tailored courses and block teaching to accommodate more hours of work, says Metternicht.

More advocacy from industry on their needs is also essential, says Ramagge. Particularly when paired with scholarships, she adds.

“If students can see very clear signals from industry that they really care about an area of study, then they’re more likely to go into it.”

This economic lens is required to support the all-important pipeline – tertiary to undergrad, providing graduates up to PhD level.

Public-good funding needed 

What of public-good funding? Industry naturally favours graduates doing work that would benefit the industry. So garnering scholarships for those whose work may, one day, be regulating industry is the biggest challenge, says Ramagge.

A radical solution might be taxing large businesses that underspend their R&D tax incentive, she adds. Unspent caps could then be used to fund public-good research.

Then, back to basics

Australian Science: Australia’s Future 2035. Image: Australian Academy of Science.

Teaching an appreciation of science offers a more fundamental solution, according to the team at the Australian Academy of Science (AAS).

Emeritus Professor and AAS Fellow Ian Chubb AC says, “We specialise too early. The processes, capacity and unpredictability of science should be taught before the latest content.”

“The professional profile in Australia is also determined by the study choices of those 17-year-olds who are choosing to go to university.”

They are avoiding courses in much-needed geo- or climate science, driving national labour shortages in these fields and others. That is despite the plethora of well-paid jobs, says Dr Hayley Teasdale, Head of Science Policy and Advice at the AAS.

AAS has found that high schools don’t understand what these jobs entail. “It’s a complex awareness issue”, says Teasdale, “but I don’t think the lack of jobs is the problem”.  

The key may be encouraging critical thinking at community level – students, parents, teachers – to make well-informed decisions, a challenge indeed given the masses of disinformation and misinformation in circulation.

Chubb says every secondary student, at least in Years 7 and 8, should be taught to evaluate evidence.

Changing the system

Emeritus Professor and AAS Fellow Ian Chubb AC. Image: Supplied.

“I’ve never felt this overwhelmingly consistent – not unanimous, but overwhelmingly consistent – pressure to change from every corner, the researching sector, the business sector, name a sector,” says Chubb of his time on the Independent Expert Panel for 2025’s Strategic Examination of Research and Development review.

Given the “present global fracas”, he adds, “we can’t rely on the rest of the world to provide us with a decent standard of living”. Under such circumstances, is there another option?

From knowledge to capability: 3 ways industry collaboration is breaking new ground

Embedding industry experience within university programs is critical to translating research into real-world outcomes. It ensures graduates can deliver against commercial timelines, performance targets and market needs.

We explore 3 examples from across the country, covering the basics to fully integrated industry collaboration.

AI takes on IVF

In 2016, Adelaide-based Presagen developed ‘Life Whisperer’, an IVF tool. Blending artificial intelligence with digital imagery, it can assess whether a Day 5 embryo is viable and its chances of leading to a pregnancy.

Presagen was cofounded by Dr Michelle Perugini and Dr Jonathan Hall, both University of Adelaide graduates.

Dr Michelle Perugini, entrepreneur, AI leader, and expert in research commercialisation. Image: Supplied.

All the research took place within the company, which made attracting investment easier, says Perugini.

Presagen took on early career researchers, developing their entrepreneurial skills on the job. It must have worked, as at least 3 of the researchers went on to start their own companies.

“We gave them experience outside of the university, in industry, as budding entrepreneurs, understanding how business works, and they’ve gone on to create their own ventures.” That was 2016 to 2018, she says.

Closer university–industry collaborations are now much more common. Graphene Manufacturing Group (GMG) is just one example.

Methane plasma brings graphene to batteries

Sourcing graphene from methane plasma sounds like science fiction, but Brisbane company GMG does just that for cathodes in its fast-charging graphene-aluminium ion batteries.

The company is now scaling up and finding applications in partnership with the University of Queensland (UQ) Australian Institute for Bioengineering and Nanotechnology (AIBN) and UniQuest.  

Black and white photo of man in white shirt.
Craig Nicol, CEO Graphene Manufacturing Group. Image: LinkedIn.

Engagement with UQ postgraduate researchers has been critical, says Craig Nicol, GMG’s CEO.

But the university research ethos and business sometimes clash. “You need people who’ve got the smarts, but you’ve got to teach them how the real-world works. So, you have this dance,” he says.

“For the university, the science is the answer, but for the business, the product is the answer, and the science is a way to get there.” The keys are in communication and how to get stuff done, says Nicol.

Biotech is all the rage

A third and increasingly common approach is being taken by Dr Kevin Pfleger, Director of Biomedical and Health Innovation at The University of Western Australia (UWA).

Pfleger is the scientific cofounder of Rage Biotech, a biotechnology company focused on commercialising health and medical research.

The company spun out of UWA, Monash University, Murdoch University, the Baker Heart and Diabetes Institute and the Perron Institute.

Pfleger also chairs UWA’s Biodesign Australia, which runs iPrep, aimed at connecting PhD researchers to industry. It includes training programs, boot camps, 3-month industry immersion programmes, the whole package.

“We find that actually students and early career researchers really embrace the brave new world of actually getting a product to market and actually helping people genuinely,” says Pfleger.

Searching for problem solvers

“We equip students with basic tools”, says Dr Colin Davies, Head of Physical Sciences at UQ and Manager of Uniquest’s Physical Sciences Commercialisation Team.

The real test often comes in the guise of problem-solving labs run by big corporations partnering with universities, says Davies. They want to see students in action and recruit the best.

That’s when the real industry learning begins.

Dr Colin Davies, Head of Physical Sciences at UQ and Manager of Uniquest’s Physical Sciences Commercialisation Team. Image: Supplied.

Following the money: how is funding influencing university research?

Image: Professor Sven Rogge, University ofNew South Wales. Supplied.

As funding tilts toward programmatic research and mission-led outcomes, Australian universities are under pressure to justify every research dollar. So what happens to curiosity, creativity and the risks that lead to unexpected breakthroughs?

A vision of blue sky

Light makes the sharpest of knives. Stretch a short laser pulse, amplify and squeeze it together again. That intense light burst, now the basis of laser eye surgery, originated as a way of exploring light’s interactions with matter in 1985. Its inventors, professors Donna Strickland and Gérard Albert Mourou, won a Nobel Prize for the discovery.

Neither could have foreseen the impact their laser research would have on millions of eyes around the world.

“Strickland is a pure scientist,” says Scientia Professor Sven Rogge, dean of the Faculty of Science at the University of New South Wales. “She doesn’t give a toss about any kind of application, [has] never done in her life. She just basically did it for the sake of doing amazing things in the lab.”

“Without fundamental, blue-sky discovery-driven research, we would not get the pipeline to the big things that change the world,” says Rogge.

But for the last few decades, Australian universities – the bastion of fundamental research – have increasingly followed the money.

Blue-sky research has declined by at least 20% since 1996, replaced by mission-driven program-based science.

“Time and dollar pressures are crucial differences between curiosity-driven and program-based science, says Professor Mark Hutchinson, interim director of the Institute for Photonics and Advanced Sensing (IPAS) at the University of Adelaide.

Industry prioritises deadlines over cost, academia values funding over speed, he says. “I think that there’s a mismatch there, especially in the Australian context.

Funding the future

Australian Research Council (ARC) and the National Health and Medical Research Council (NHMRC) account for most blue-sky research funding in Australia.

“The beauty of ARC funding is that an element of that discovery research is available to non-priority, non-mission driven activities,” according to Hutchison.

Although 47% of ARC Discovery Projects were funded for 2025, this is after 72% of the initial applications were removed at the expression of interest stage. In 2024, just 17% of Future Fellowships of Future Fellowships got up, with other schemes faring worse – between 10% and 32%.

Which means much curiosity – driven Australian science is unrealised.

What then is the future for such blue-sky research?

“That’s the critical question,” says Hutchinson, and “highlights why the health of Australia’s research sector is so important. Competition for ARC funding is fierce, and some excellent science will miss out.”

“However, for the first time, the ARC’s core mission to fund fundamental, blue-sky research is now protected by law.

This provides a guaranteed, stable home for those investigator-led projects,” she says. “We will keep working to increase the funding in a strategic and sustainable manner across the whole sector.”

Rogge is less sanguine. “What is very worrisome is that the ARC budget has basically been flat.” Total federal government research spend is 1.7% of GDP, well below the Organisation for Economic Co-operation and Development (OECD) average [2.7%].

“That is a serious problem for a country that should move away from only basically digging stuff up, but actually start to manufacture higher value chain products.”

Research provides a good “bang for buck” adds Rogge. “The government has to think, with industry, about how we can be attractive for that R&D and building more pathways to get knowledge outside, from the universities into societies. It’s a huge opportunity.”

“There’s a lot of very, very good fundamental research going on at universities,” he says. “Putting further pressure on that is counterproductive, because if you look at the way knowledge transforms into productivity, into dollars in the society, it’s a long pipeline”

Matching Indigenous community priorities

Curiosity-driven research must also match community-priorities, says Professor Bronwyn Fredericks, University of Queensland’s Deputy Vice Chancellor (Indigenous Engagement). Otherwise, it’s just knowledge mining for the good of the researchers, she says. Indigenous people have lost land and resources.

“The knowledge base may be the only thing some people have left.”

Dr Katrina Wruck of the Queensland University of Technology (QUT) agrees, and would like to see “Indigenous knowledge elevated so that people who go to university understand the depth of knowledge. Also so community can see their own
knowledge as being elevated in the curriculum, and then also providing opportunities for economic self-determination, commercialising traditional knowledges and patenting their own traditional knowledge and copyright.”

Wruck is 2025 Young Australian of the Year and descended from the Panaylayg Nation of Mabuyag Island, Zenadeth Kes/Torres Strait Islands.

“I think it comes down to the land councils and the communities or Aboriginal corporations working with universities and researchers to help find ways, new ways to help community,” she says.

Public understanding of science is the key. “The biggest problem is that the community does not understand the
impact and importance of science; the practical outcomes that are created,” says Rogge. “And since that’s not known, there’s not a lot of sympathy.”

The future Rogge would like to see is a mix of mission-based and curiosity-driven research. One where science is thriving and recognised for real-world contributions.

Where scientists are working on real-world problems, involved with Indigenous and other communities, in industry and community-based science, he says. Community involvement means more effective illustration of the power of science.

According to Rogge, it’s vital to “make the university a more porous place where we bring the public in to be part of the
science that happens”.

First published in Australian University Science Issue 14