A purpose-built advanced manufacturing research facility opened in Melbourne’s western suburbs this week, housing equipment and expertise that previously existed across multiple disconnected sites. The hub aims to shorten the path from research concepts to production-ready processes.

The facility, a partnership between RMIT University, Swinburne University, and several manufacturing companies, occupies 8,000 square metres in Sunshine. It includes additive manufacturing systems, industrial robotics, advanced materials processing equipment, and spaces designed for industry partners to work alongside researchers.

What’s Inside

The centrepiece is a metal additive manufacturing cluster with five different systems, from powder bed fusion machines for aerospace components to directed energy deposition equipment for repairing mining equipment. Having multiple systems in one location lets researchers compare approaches and understand when each technique works best.

There’s also a substantial robotics capability. The facility houses collaborative robots designed to work alongside humans, industrial arms for high-speed automated assembly, and mobile autonomous systems. Researchers can prototype entire production cells and test them under realistic conditions.

The materials characterisation lab contains analytical equipment for understanding how manufacturing processes affect material properties. When a 3D-printed metal component fails, researchers need to know whether the problem was the alloy composition, print parameters, or post-processing treatment. The right instruments make those questions answerable.

Professor Emma Richardson, who directs RMIT’s advanced manufacturing research, said the facility’s design prioritises flexibility. Rather than optimising for a single research program, the space can accommodate projects from multiple groups working on different problems.

The Industry Partnership Model

Unlike some university research facilities that restrict access to academic projects, the Melbourne hub explicitly encourages industry use. Companies can rent equipment time, contract specific development projects, or embed engineers in the facility to work alongside university researchers.

The arrangement benefits both parties. Companies get access to equipment that would be prohibitively expensive to own, plus expertise in running it effectively. Universities get real-world problems that drive relevant research, plus revenue that supplements government funding.

Several manufacturing companies have already signed multi-year partnerships. Casting manufacturer Alotech is working with RMIT researchers on topology optimisation techniques that could reduce material use in structural components. Precision engineering firm Romar Engineering is investigating hybrid manufacturing processes that combine additive and subtractive techniques.

For smaller manufacturers who need occasional access rather than sustained partnerships, the facility offers a “try before you buy” program. Companies can run small-scale trials to determine whether a new manufacturing technology makes sense for their business before investing in equipment.

Skills Development Component

The facility also houses training programs for manufacturing workers and engineers. Short courses cover specific techniques like operating metal 3D printers or programming collaborative robots. Longer programs lead to graduate certificates in advanced manufacturing.

This addresses a persistent industry complaint that graduating engineers often lack hands-on experience with modern manufacturing equipment. Universities teach the underlying principles but can’t always afford the latest production technology. Industry-focused facilities like this one bridge that gap.

The training programs aren’t limited to university students. Manufacturers can send existing employees for skills upgrading, and the facility runs programs specifically designed for workers transitioning from traditional to advanced manufacturing roles.

There’s a particular focus on manufacturing sectors where Australia retains competitive capability: aerospace components, mining equipment, medical devices, and specialised industrial machinery. These sectors need advanced manufacturing techniques but operate at scales where fully automated high-volume production doesn’t make sense.

Regional Manufacturing Context

Melbourne’s western suburbs have a long manufacturing history, though the sector contracted sharply over the past two decades as automotive manufacturing departed. Establishing the advanced manufacturing hub in Sunshine represents an attempt to rebuild capability, focused on higher-value, technology-intensive production.

The Victorian government contributed $45 million to the facility’s construction, viewing it as part of a broader industry strategy. Advanced manufacturing won’t employ the thousands that automotive assembly once did, but it could support profitable businesses producing specialised products.

Several Australian states are pursuing similar strategies, establishing advanced manufacturing facilities to support local industry. South Australia has a facility focused on defence manufacturing. Queensland’s focuses on aerospace. The risk is creating duplicative capabilities rather than complementary specialisations.

Proponents argue that some duplication is acceptable if it creates critical mass in regional manufacturing ecosystems. Having researchers, equipment suppliers, contract manufacturers, and end users in proximity generates knowledge spillovers and informal collaborations that wouldn’t happen if capabilities were dispersed.

Research Priorities

The facility’s research agenda covers several themes. One is making additive manufacturing economically viable for mid-volume production, not just prototypes or highly customised parts. That requires faster build speeds, better surface finishes, and more reliable quality control.

Another priority is hybrid manufacturing systems that intelligently combine different processes. A component might be additively manufactured for its complex internal geometry, then CNC machined for precise external dimensions, then treated with advanced surface coatings. Optimising that entire sequence requires understanding interactions between processes.

Materials research is also central. Many advanced manufacturing techniques work brilliantly with specific materials but fail with others. Expanding the range of materials that can be reliably processed opens new applications. Researchers are investigating everything from aluminium alloys for aerospace to biocompatible titanium for medical implants.

For businesses trying to understand when advanced manufacturing makes commercial sense, getting specialist advice helps sort hype from reality. The Melbourne hub’s industry engagement team can connect manufacturers with appropriate expertise, whether that’s within the facility or elsewhere in the research community.

The facility represents a substantial bet on technology-intensive manufacturing as part of Australia’s economic future. Whether that bet pays off depends on sustained investment, strong industry engagement, and research that solves real problems. The infrastructure is now in place. How it’s used over coming years will tell the real story.