Dornoch Academy students use XR simulations to master medicine manufacturing
A specialized workshop from the Scotland RESILIENCE Hub blends virtual reality with physical lab work to bridge the life sciences skills gap.
Pupils at Dornoch Academy have utilized immersive Extended Reality (XR) simulations to gain hands-on experience in modern medicine manufacturing. The initiative aims to prepare students for high-precision careers in the life sciences by blending digital training with traditional laboratory practice.
During the workshop, students pursuing a National 5 Laboratory Science qualification engaged in a hybrid learning model that combined physical benchwork with XR simulations. The curriculum focused on the technical rigors of pharmaceutical production, including the assembly of bioreactors, the use of precise measuring tools, and the mastery of aseptic techniques. This integration of hands-on activities and immersive experiences allows pupils to develop practical laboratory skills in a controlled, modern environment.
Bridging the Skills Gap
The training was delivered by the Scotland RESILIENCE Hub, a specialist UK training center based at Heriot-Watt University in Edinburgh. This hub is one of four regional university centers operating under the UK-wide RESILIENCE Centre for Excellence Project, which is led by the University of Birmingham.
Specifically, the program was designed to support pupils with their "Candidate Review" coursework for the Careers Unit of their National 5 Laboratory Science qualification. By visiting schools, the RESILIENCE hubs seek to build early awareness of life sciences careers and address a critical shortage of skilled workers capable of manufacturing complex medicines.
Industry Implications
Integrating XR into secondary education lowers the barrier to entry for complex pharmaceutical training, particularly in rural areas. The ability to simulate high-stakes environments allows students to fail safely and iterate quickly before moving to physical equipment. This seamless transition between the virtual lab and physical benchwork demonstrates the adaptability and analytical focus required in modern scientific environments.
This model provides a scalable blueprint for bridging the gap between academic coursework and the stringent technical requirements of the modern life sciences industry. By introducing these tools at the secondary level, the program attempts to create a more robust pipeline of qualified laboratory technicians who are comfortable with both digital and physical workflows.
Future Outlook
As the UK continues to prioritize the resilience of its medicine supply chain, the expansion of these regional hubs will be key to closing the existing skills gap. Observers will be watching to see if this hybrid XR-physical model is adopted more widely across the National 5 curriculum to standardize technical training for the next generation of laboratory workers. Such a shift could fundamentally change how vocational science is taught in Scottish schools, moving away from static textbooks toward dynamic, industry-aligned simulations.