Opinion: How STEM education can evolve in Australian secondary schools

Opinion: How STEM education can evolve in Australian secondary schools

By Kath Kayrooz

Australian secondary education is facing pressure to evolve as universities and employers elevate critical thinking and interdisciplinary problem solving. These shifts are challenging traditional models of curriculum, in doing so providing an education that develops our students as future-ready learners.

In schools across Australia, students often begin their secondary education uncertain of what they can achieve. With the right support and learning environment, they can develop the confidence and skills to take on complex problems that do not yet have clear answers. Today’s students need to be ready for a world defined by complexity and technological change.

An evolution of STEM subjects

Australian schools are increasingly rethinking how STEM education is delivered. Rather than limiting STEM learning to selective subjects, there is a growing shift towards embedding science, technology, engineering and mathematics more broadly across curricula and connecting them to inquiry-based learning experiences.

In many schools, STEM learning has traditionally been offered as an elective, which limits consistent access for all students. In response, some schools are exploring approaches that place STEM capabilities at the centre of learning for all students, ensuring broader exposure to critical thinking, problem solving and analytical skills.

At the heart of this are educational partnerships. For example, at the Queensland Academy for Science, Mathematics and Technology (QASMT) we have connected with institutions such as The University of Queensland (UQ), co-designing programs to connect classroom learning with real-world applications. Through Year 9 STEM-focused programs, students engage in hands-on learning experiences each semester, deepening their knowledge of the subjects while broadening their practical application.

Subjects such as Biochemical Solutions and Forensic Psychology allow students to explore niche fields beyond traditional curricula to facilitate learning in real-world contexts. Across such subjects, there is a strong emphasis on university level thinking and research skill development, ensuring students learn analytical and inquiry capabilities to excel beyond the classroom. These kinds of experiences influence student pathways, with many students choosing Year 12 subjects aligned to their earlier STEM exposure.

Considering an alternative educational foundation

Educators should focus on curricula which underpin STEM through real-world exposure, challenging students to question, investigate, analyse and justify their own thinking. In Australia and globally, students could choose to undertake the IB’s Diploma Programme (DP) which is recognised for strong academic outcomes and their preparedness for tertiary study, with universities considering IB results alongside ATAR equivalencies. Such outcomes are supported by deliberate investment in staff collaboration, with teachers engaging in two hours of school-funded time each week to strengthen curriculum coherence, refine assessment design, and together respond to emerging challenges, including the use of AI in learning.

Partnerships beyond the classroom play a significant role in building students’ confidence in their academic journey. The STEM Research Project Program connects students with researchers from the University of Queensland as mentors, enabling them to undertake high-level, independent research, and present their work at national and international science fairs.

Initiatives such as the UQ Data Day provide every student with an opportunity to develop university level data literacy. Together, these experiences immerse students in authentic research environments, supporting them to see themselves as capable and emerging problem-solvers.

More broadly, these models highlight what is possible when STEM education is intentionally integrated across a whole-school approach. When implemented effectively, such frameworks create learning environments that are rigorous, inclusive and closely connected to real-world challenges.

In practice, that looks like all students participating in structured STEM programs designed to build research capability, data literacy and advanced scientific thinking, from Middle Years onwards.

At a time when universities are seeking students who are not only academically capable but adaptable, reflective and future-ready, a shift in how STEM education is designed and delivered has never been more important.

Kath Kayrooz is the Principal of the Queensland Academy for Science, Mathematics and Technology (QASMT).