The Triumphant Launch of Galah: A Student-Led Breakthrough

In the vast expanse of outback New South Wales, a team of dedicated engineering students from the University of Sydney made history last month by successfully launching their hybrid research rocket, Galah. Reaching a peak altitude of 10,200 feet—surpassing their 10,000-foot target—this achievement marks a significant milestone for student rocketry in Australia. The launch at Tolarno Station, a remote sheep station between Mildura and Broken Hill, capped months of intensive design, testing, and preparation by nearly 90 students across disciplines including mechanical, aerospace, and mechatronic engineering, as well as contributions from arts, science, and computer science majors.

The Galah project exemplifies how university programs foster real-world innovation. Students handled everything from propulsion systems to operations, mirroring professional aerospace workflows. This hands-on experience not only builds technical prowess but also hones interdisciplinary skills essential for today's complex engineering landscape.

Behind the Scenes: Building Galah from Concept to Flight

The journey to launch began with rigorous calculations and simulations to ensure the hybrid rocket engine—fully student-researched and developed (SRAD)—delivered precise performance. Hybrid engines combine solid fuel with liquid oxidizer, offering safety advantages over purely liquid or solid systems, such as easier throttling and reduced explosion risk. The team transported components over 12 hours to the site, reassembling under challenging outback conditions, with launches permitted only twice weekly based on weather.

Project manager Michael Bogeholz highlighted the team's diversity: "We get people from all sample areas of the uni... Not only do we have a technical side but we have an operations side which handles our finances, business, media and sponsorships." This holistic approach prepares students for industry roles beyond pure engineering.

Student Voices: Hands-On Learning Like No Other

Systems engineer Lillie Mellin, a fifth-year Mechatronic Engineering and Law student, shared: "It's hands-on and technically so much more demanding than other experiences at uni, so you're just forced to learn so much... It's been a really good insight into how engineering works in the real world." Technical director Charlie Balderstone added: "We're split across a range of disciplines... Obviously it's cool to watch a rocket go up and it is 10 times cooler when it is something that you've put together."

These testimonials underscore the transformative power of student rocketry clubs. Participants gain deep system knowledge—rare even in industry—through propulsion, avionics, structures, and recovery subsystems. Early-career students now lead projects, shifting from observer to innovator roles since the program's inception around 2017 with the Wedgetail rocket, Australia's first student-built and launched.

USYD Rocketry Team's Legacy of Excellence

The University of Sydney Rocketry Team has a storied history. Previous rockets include Silvereye (2019, 10,027 feet, first place IREC), Pardalote (2024, 10,342 feet, first place), and others like Rosella, Bluewren, and Firetail. They test at a dedicated facility between Sydney and Canberra, emphasizing SRAD hybrid propulsion for competitions.

University support is crucial: access to facilities, faculty mentorship, and funding enable these feats. The program aligns with USYD's Space Engineering initiatives, where students study spacecraft design, orbital mechanics, and mission operations.

Photo by Eriksson Luo on Unsplash

A Thriving Ecosystem of Student Rocketry in Australian Universities

USYD isn't alone. Monash University's High Powered Rocketry (HPR) team boasts the Solaris MkII, Australia's most powerful student hybrid engine, competing in AURC and Spaceport America Cup. ANU Rocketry, Adelaide University's Adept, RMIT, and UQ also field teams, often developing 3D-printed hybrids. These groups participate in the Australian Universities Rocket Competition (AURC) and international events like IREC, where USYD will compete in June 2026 against rivals including RMIT.

• Monash HPR: Project Zenith targets historic launches with cryogenic hybrids.
• RMIT: Collaborates on metal 3D-printed engines.
• ANU: Recent 10,000-foot prototype milestone.

This network drives innovation, with universities like UNSW, USYD, and UQ leading aerospace programs.

Fueling Australia's Booming Space Sector

Australia's space industry, valued at over $5 billion with 10,000 jobs, relies on university talent. Programs produce graduates for companies like Gilmour Space (hybrid pioneers) and agencies like the Australian Space Agency. Student projects bridge academia and industry, developing skills in propulsion, avionics, and simulation—critical for small satellite launches and sovereign capabilities.Learn more about career pathways in the Australian space sector.

Balderstone noted: "By targeting that through the student level... you're setting up very well for the future of engineers in Australia." Mellin echoed: "[Rocketry] opened my eyes to that side of engineering... leaning towards the engineering portion, with law assisting."

Challenges and Innovations in Hybrid Rocketry

Hybrid engines excel in safety and cost but demand precise fuel-oxidizer matching. USYD's SRAD approach involves proprietary designs, ground testing, and flight validation. Challenges include outback logistics, regulatory approvals from AVSEF, and simulation accuracy for competitions scoring proximity to targets.

Innovations like 3D-printed components (seen in Monash and RMIT) reduce costs and enable rapid iteration, aligning with industry trends toward reusable, scalable propulsion.

Interdisciplinary Skills for Future Leaders

Rocketry transcends engineering: operations teams manage sponsorships, media, and safety, while arts/science students contribute to payloads or data analysis. This mirrors space missions requiring systems thinking. Universities integrate these clubs into curricula, offering credit and electives in space engineering at USYD, UNSW, and UQ.Explore space engineering programs at leading Australian universities.

Photo by Jeremy Huang on Unsplash

Looking Ahead: Competitions, Careers, and National Impact

Next: IREC in Texas, June 2026. Long-term, teams eye higher altitudes (30,000+ feet) and liquid engines. Graduates enter a sector projected to double by 2030, with unis pivotal in workforce development. Programs like these ensure Australia competes globally, from Artemis contributions to domestic launches.

For aspiring engineers, joining rocketry clubs offers unparalleled preparation. As Bogeholz said, it's about building not just rockets, but futures.

Why Student Rocketry Matters for Australian Higher Education

These initiatives enhance employability, with alumni at SpaceX, Rocket Lab, and local firms. They promote equity by engaging diverse students early, fostering leadership. Amid industry growth, universities must expand facilities and funding to sustain momentum.