Research Labs

Our nanomaterials research has transformed the way scientists investigate and manipulate matter at the nanoscale, revealing distinctive properties that differ significantly from bulk materials. This field has opened new possibilities across areas such as Materials Science, Nanotechnology, and Biotechnology, where nanoscale materials are applied in medicine, electronics, and environmental solutions.

A key aspect of this research lies in the use of advanced instrumentation for precise analysis and characterisation. The facility is equipped with a Nanoparticle Tracking Analysis system for accurate measurement of nanoparticle size and distribution. In addition, tools such as Carbon Dioxide Incubator support the study of interactions between nanomaterials and biological systems. These facilities provide a strong foundation for nanomaterials research, supporting innovation and practical applications across science and engineering.

Our mechanical testing facilities are an important part of materials research and engineering education, used to evaluate how materials respond to different types of loading such as tension, compression, bending, and impact. They help determine key mechanical properties including strength, stiffness, ductility, toughness, and fracture behaviour, which are essential for applications in aerospace, automotive, and structural engineering. The facilities are equipped with a range of advanced testing equipment, including Universal Testing Machines (UTMs) for tensile and compression testing, a Benchtop Impact Tester for assessing material toughness under sudden loading conditions, and a Rockwell Hardness Tester for measuring material hardness and resistance to indentation.

These resources allow students and researchers to carry out both standard and advanced material characterisation experiments, linking theoretical knowledge with practical testing. By using this equipment, materials can be evaluated at different scales and under realistic service conditions, helping to improve design reliability and performance.

Our state-of-the-art Wind Tunnel Facility plays a central role in aerospace engineering teaching and research, providing a professional environment for studying aerodynamic behaviour under controlled conditions. The facility includes a range of subsonic wind tunnels widely used in universities due to their suitability for low-speed airflow studies, allowing detailed investigation of lift, drag, and flow patterns. Key systems include the AEROLAB Closed-Circuit Subsonic Wind Tunnel, which recirculates air for stable and efficient testing, alongside the AF1300 and AF1450 subsonic wind tunnels, which are open-circuit suction systems commonly used for aerodynamic experiments and model testing.

These advanced facilities enable students and researchers to explore fundamental and applied aerodynamic principles such as pressure distribution, boundary layer development, and flow separation. The AF1300 supports introductory and intermediate-level experiments, while the AF1450 offers enhanced capabilities for more detailed analysis, including precise force measurements and flow diagnostics. By combining high-quality equipment with practical experimentation, the facility provides a professional platform for developing real-world engineering skills relevant to aerospace, automotive, and mechanical industries.