Australian Research Funding Data Shows Shift Toward Applied Science
New analysis of Australian research funding patterns over the past five years shows a marked shift away from fundamental science toward applied research with clearer pathways to commercialisation and industry partnership.
Data from the Australian Research Council and National Health and Medical Research Council shows that Discovery grants supporting curiosity-driven research have declined by 18% in real terms since 2020, while Linkage grants requiring industry partnerships have grown by 25%.
The shift reflects government policy emphasising research translation and economic returns on public science investment. But some researchers warn that diminishing support for fundamental research will eventually undermine applied research by eroding the knowledge base it depends on.
The Funding Landscape
Australian government funding for university research flows primarily through the ARC, which supports non-medical research, and NHMRC, which funds health and medical research. Combined, these agencies distribute about $1.2 billion annually in competitive grants.
Discovery grants fund research chosen primarily for scientific merit and investigator track record. These grants have been the backbone of fundamental research in fields like mathematics, physics, chemistry, and basic biology. Funding rates have fallen from about 22% of applications in 2020 to 16% in 2025.
Linkage grants require partnerships with industry or other end-users who contribute cash or in-kind support. These grants fund applied research addressing practical problems. Funding rates for Linkage grants have remained relatively stable at 25-30%, but total funding has increased.
The NHMRC funds medical research through various schemes. Investigator grants support individual researchers’ programs. Ideas grants fund specific research projects. Synergy grants support team-based research. Overall NHMRC funding has grown modestly, about 3% annually in real terms.
Dr Michael Harrison, who analysed the funding data for the Australian Academy of Science, said the trends are clear and consistent across disciplines. “Governments want to see more immediate returns on research investment. That means favouring applied research over fundamental science.”
Impact on Research Culture
The funding shift affects what research gets done and how scientists structure their work. Researchers increasingly frame proposals to emphasise potential applications even when their primary interest is fundamental understanding.
Early-career researchers feel the shift most acutely. Building research track records traditionally required years of fundamental work establishing expertise. Now, grant panels favour applications showing industry connections and commercialisation potential that early-career researchers often lack.
Some fields are affected more than others. Engineering and agricultural research often have clear industry connections and translate readily to Linkage grants. Pure mathematics, theoretical physics, and taxonomy face harder paths to demonstrating commercial relevance.
There’s concern that Australia is producing fewer researchers with deep expertise in foundational disciplines. Graduate students naturally gravitate toward research areas with better funding, gradually shifting the skill mix in the research workforce.
Several Australian universities have adjusted hiring and promotion criteria to emphasise research translation and industry engagement alongside traditional metrics like publications and citations. This accelerates the cultural shift toward applied research.
International Comparison
Most developed countries support both fundamental and applied research, though the balance varies. The United States maintains substantial fundamental research funding through the National Science Foundation and national laboratories. China has ramped up research spending dramatically across all categories.
Australia’s research spending as a percentage of GDP has declined from 2.2% in 2015 to 1.8% in 2024, bucking the trend in other OECD countries where research intensity is growing. The decline affects both fundamental and applied research, but fundamental research has borne disproportionate cuts.
Some argue Australia should double down on applied research aligned with national strengths rather than trying to compete in all areas. Others contend that robust fundamental research is essential for long-term competitiveness and that short-term thinking undermines future capabilities.
European research funding through frameworks like Horizon Europe maintains substantial fundamental research streams alongside applied programs. This balanced approach reflects political support for science across the research spectrum.
Israel and Singapore, often cited as models for research translation, both maintain strong fundamental research alongside aggressive commercialisation programs. Their success comes from doing both well, not sacrificing one for the other.
Arguments for Applied Focus
Proponents of emphasising applied research argue that Australia has produced excellent fundamental science but struggled to commercialise it. They point to cochlear implants, cervical cancer vaccines, and Wi-Fi as examples where Australian research created global impact through application.
Industry partnership requirements force researchers to engage with potential users of their work, potentially accelerating translation. Research that might otherwise remain in academic journals gets tested in real-world applications.
Limited public funding means tough choices. If government must prioritise, focusing on research with clearer economic returns makes political sense, particularly when defending science budgets against competing priorities like health, education, and infrastructure.
Some fields have responded positively to the shift. Engineering and agricultural science have strengthened industry connections and seen research outputs translated into practice more quickly than under previous funding models.
There’s also the argument that fundamental research will continue through other channels. University funding provides block grants supporting research that doesn’t depend on competitive grants. Some fundamental research happens through international collaborations where Australia contributes but doesn’t lead.
Arguments for Fundamental Research
Critics of the applied research emphasis argue that fundamental discoveries unpredictably create future applications. Quantum mechanics seemed like pure theory until it enabled modern electronics and computing. Understanding DNA structure preceded genetic engineering by decades.
Australia’s most economically significant research contributions, from cochlear implants to crop varieties, built on decades of fundamental research. Cutting fundamental research starves the pipeline that feeds future applications.
Applied research depends on fundamental knowledge. Researchers solving practical problems draw on scientific principles established through curiosity-driven research. Without ongoing fundamental work, applied researchers lose the knowledge base they depend on.
International reputation in science correlates with fundamental research strength. Australia’s research standing has traditionally exceeded its economic size because of excellent fundamental science. Shifting exclusively toward applied work risks diminishing that standing.
There are also questions about whether industry partnerships truly accelerate translation or merely favour research in fields where industry already sees value. Transformative discoveries often come from unexpected directions that industry partnerships wouldn’t pursue.
Discipline-Specific Impacts
Physics and mathematics have been particularly affected. These disciplines struggle to demonstrate short-term commercial applications despite underpinning much modern technology. Funding success rates in these fields have fallen below 10% for some programs.
Astronomy and space science maintained funding through government’s space industry priorities, but fundamental space science unrelated to satellites or launch capabilities faces challenges. Some astronomers have reframed research to emphasise technical capabilities rather than pure discovery.
Chemistry has adapted better because many chemical research topics connect readily to industrial applications. Battery materials, catalysis, and materials science naturally involve industry partnerships.
Biological sciences span fundamental and applied research. Cell biology and ecology are more affected than biomedical research with clear health applications. Some ecologists now emphasise agricultural or environmental management applications to improve funding prospects.
Social sciences and humanities funding through ARC has remained relatively stable in absolute terms but grown more competitive as more researchers compete for static budgets. These fields have always emphasised real-world relevance, reducing impact from the applied research shift.
Long-Term Implications
If current trends continue, Australia will have less fundamental research capability in a decade. The research workforce will skew toward applied researchers, and fewer students will train in foundational disciplines.
This creates vulnerabilities when new fundamental discoveries occur internationally. Countries that maintain fundamental research capabilities can build on new discoveries quickly. Countries that don’t must wait for knowledge to diffuse or license technology from others.
There’s also the question of research workforce development. PhD students learn research skills by working on cutting-edge problems. If Australia’s research focuses exclusively on incremental applications, students miss exposure to fundamental research training.
Some disciplines might essentially disappear from Australian universities if funding remains unavailable. Pure mathematics, theoretical physics, and taxonomy are vulnerable. While small in research funding terms, these fields provide education and expertise that applied fields draw on.
Economic analyses of research return on investment typically show high returns for both fundamental and applied research, with fundamental research showing higher variance but also higher upside potential. Optimal portfolios include both types.
Policy Considerations
Balancing fundamental and applied research requires explicit policy choices about how research funding is allocated. Current policy implicitly favours applied research through funding program design without necessarily intending to eliminate fundamental work.
Some researchers advocate for protected funding streams that preserve fundamental research regardless of commercial relevance. Others suggest improving pathways from fundamental to applied research so the distinction becomes less meaningful.
International collaborations could allow Australia to access fundamental research done elsewhere while focusing domestic resources on applied work. But this assumes other countries will perform fundamental research that Australia can then use, and that knowledge transfer works smoothly.
Measuring research impact is challenging. Citation counts and publications are traditional metrics but don’t capture commercialisation or societal benefit. Patent counts and startup formation measure translation but miss fundamental discoveries that enable later applications.
The optimal balance between fundamental and applied research probably varies by field and changes over time. Rigid policies favouring one over the other may be less effective than flexible approaches that adapt to scientific opportunities and economic needs.
For Australia’s research system, the current trajectory raises questions about long-term competitiveness and research capability. The shift toward applied research reflects legitimate priorities, but the speed and extent of the shift concern many researchers who see it as short-term thinking that could undermine future research strength.