3D models will help dentists master complex procedures
Replicating not only the anatomy of teeth, jawbone and soft tissue, but also how they respond during surgery
Dentists could soon have access to highly realistic 3D advanced manufactured dental models that better prepare them for complex tooth removal procedures.
A collaborative research project between Australian medical training device company Fusetec, Adelaide University and the Additive Manufacturing Cooperative Research Centre (AMCRC). will develop a new generation of biomimetic dental training models that replicate not only the anatomy of human teeth, jawbone and soft tissue, but also how they respond during surgery.
The models are designed to help clinicians better plan and practise complex procedures such as wisdom tooth removal, improving surgical confidence and ultimately supporting better patient outcomes.
Building on an established collaboration between Fusetec and Adelaide University, the dental project combines world-leading expertise in dental research, biomaterials and advanced manufacturing to accelerate the commercialisation of an Australian-made medical training platform.
Fusetec CEO Mark Roe said the project represents an important step in bringing advanced Australian manufacturing innovations into everyday clinical practice: “This collaboration allows us to turn years of research into a commercially viable product with real clinical value.
“We’re developing dental models that don’t just look like anatomically correct – they respond like real tissue during surgery. That gives clinicians greater confidence when planning procedures while providing a for more realistic training experience.”
Associate Professor Ling Yin from Adelaide University’s School of Electrical and Mechanical Engineering, who leads the research in collaboration with the School of Dentistry and Future Industries Institute, said realistic surgical training remained one of the biggest challenges in dentistry.
“Every patient presents differently, yet existing training models cannot accurately replicate the feel and behaviour of human dental tissue,” he said.
“By combining advanced clinical imaging with additive manufacturing, we can create dental models that better mimic real anatomy and help clinicians understand the forces involved in complex tooth removal procedures.”
The project will integrate advanced clinical imaging, digital modelling and multi-material additive manufacturing to produce patient-specific, biomimetic dental replicas. Researchers will also develop simulation tools to better understand fracture force thresholds during surgery, supporting safer, more predictable and less invasive clinical practice.