Research and Innovation

The Light Structures Laboratory features state-of-the-art facilities for the fabrication, assembly, testing, and non-destructive evaluation of light structural systems and construction materials. The laboratory is equipped with structural testing equipment, loading frames, small-scale compression testing machines, non-destructive testing (NDT) instruments, and advanced instrumentation for evaluating the behaviour, strength, stiffness, serviceability, and condition of structural elements under static loading. These facilities support research on structural performance, structural health monitoring, condition assessment, innovative construction materials, modular and lightweight structural systems, and sustainable engineering solutions for civil and structural engineering applications.

The Heavy Structures Laboratory features state-of-the-art facilities for large-scale structural testing and performance evaluation of reinforced concrete, steel, timber, and composite structural elements. The laboratory is equipped with advanced structural loading systems, reaction/loading frames, hydraulic jacks, load cells, strain gauges, data acquisition systems, large-scale beam testing facilities, pull-out testing facilities, and instrumentation for evaluating structural behaviour, strength, stiffness, serviceability, load-bearing capacity, and failure mechanisms. These facilities support research on structural performance, infrastructure resilience, innovative construction materials, load-bearing systems, long-term structural performance, and sustainable civil and structural engineering applications.

The Concrete Lab features state-of-the-art facilities for the batching, mixing, vibrating, casting, and curing of concrete, mortar, paste, and other cementitious materials. The laboratory is equipped with concrete mixers, mortar and paste mixers, vibrating tables, workability testing equipment, hot-water curing tanks, temperature-controlled water curing facilities, heat-curing chambers, and supporting instrumentation for evaluating the fresh properties of conventional, low-carbon, and sustainable concrete. These facilities support research on concrete mix design optimisation, fresh-state behaviour, specimen preparation, curing methods, supplementary cementitious materials, recycled materials, and the development of innovative and sustainable concrete technologies for civil and structural engineering applications.

The Concrete Cutting Room features state-of-the-art facilities for the cutting, grinding, and preparation of concrete, masonry, rock, and other construction material specimens. The laboratory is equipped with concrete cutting saws, grinding equipment, milling and powdering systems, and sample preparation facilities for producing specimens with accurate dimensions and preparing powdered materials for further analysis. These facilities support research and teaching activities related to mechanical testing, durability testing, chemical analysis, mineralogical characterisation, and microstructural investigation of construction materials.

The Humidity Chamber Room features state-of-the-art controlled environmental facilities for the conditioning, curing, and storage of construction materials and test specimens under regulated temperature and humidity conditions. The laboratory is equipped with humidity-controlled curing chambers and creep testing setups that provide stable environmental conditions for concrete, cementitious materials, and other construction materials throughout the curing and testing process. These facilities support research on material hydration, strength development, shrinkage, creep, durability, moisture-related performance, and the long-term behaviour of construction materials under controlled environmental conditions.

The Materials Store provides secure storage facilities for construction materials, laboratory consumables, testing equipment, and research specimens used in teaching and research activities. The facility supports the organised storage, handling, and distribution of cementitious materials, aggregates, recycled materials, chemicals, moulds, and prepared specimens, ensuring material quality, traceability, and safe laboratory operations. These facilities support efficient laboratory management and provide ready access to materials for experimental research, teaching, and industry collaboration across civil and structural engineering.

The Geotechnical Laboratory features state-of-the-art testing facilities for the characterization and performance evaluation of soils, recycled geomaterials, and pavement materials. The laboratory is equipped with advanced systems for unsaturated soil testing, pavement geotechnical testing, dynamic and cyclic loading, resilient modulus and permanent deformation testing, permeability, consolidation, compaction, and strength assessment. These facilities enable research into soil behaviour, pavement performance, ground improvement technologies, sustainable construction materials, and the long-term performance of geotechnical infrastructure under static and repeated loading conditions

The Triaxial Laboratory houses state-of-the-art equipment for static and cyclic triaxial testing of soils. The facility enables comprehensive assessment of shear strength, stiffness, stress–strain response, and deformation characteristics under a wide range of loading and drainage conditions.

The Temperature Control Room houses state-of-the-art facilities for conducting geotechnical tests under controlled temperature and humidity conditions. The laboratory includes equipment for swell and shrinkage testing, Soil–Water Retention Curve (SWRC) measurement, moisture equilibration, specimen curing, and environmental conditioning. These facilities support research on unsaturated soils, expansive clays, pavement materials, and the durability and long-term performance of geomaterials.

The Asphalt Mould-Making Facility is equipped with contemporary features that support the production of innovative asphalt mixes and testing specimens. The facility is equipped with an automatic asphalt mixer, which allows researchers to customize the mixing speed, temperature, and duration to produce conventional, recycled, and modified asphalt mixes with consistency. Latest-generation moulding equipment in the facility efficiently converts loose asphalt samples into precision-engineered specimens for a wide range of asphalt testing applications, including mechanical and environmental performance evaluations, durability assessments, and pavement material research. The automatic cutting saw allows precise sample preparation for testing with safe operation.

The 3D Printing & Robotics Laboratory specialises in 3D concrete printing and robotics for construction automation. It supports courses in 3D printing technologies for construction, modular construction, and design for digital fabrication. The lab leads and participates in industry projects focused on concrete printing applications. Its core capability centres on an ABB robotics arm integrated with a direct mixing system, enabling precise on-demand material preparation and controlled deposition. The lab is currently collaborating with the heavy structures concrete laboratory to develop advanced printable materials and indoor wet-mix processes that occur immediately before printing, significantly reducing dust generation and occupational hazards. The facility is also a key partner in an industry defence research project funded in 2026 dedicated to next-generation 3D printing materials. Additional general capabilities include large-format additive manufacturing with cementitious materials, robotic path planning and automation for construction tasks, rheological characterisation and optimisation of printable concretes and mortars, digital twin and simulation support for printing operations, BIM/CAD-to-print workflow integration, mechanical and durability testing of printed structural elements, development of sustainable low-carbon construction materials, and collaborative R&D in resilient, automated, and modular building systems.

The Fire-Under-Load Laboratory is equipped with a 250 kN MTS universal tensile machine with a radiant heater and oxygen calorimeter to quantify fire resistance, fire survivability, and reaction to fire properties. These facilities support research and teaching activities on the development fire safe structures by characterising the synergistic impact of mechanical stress and fire exposure on the survivability of structural materials.

The Multi-Scale Fire Laboratory is equipped with fire testing equipment across small- to large-scale. It houses multiple small-scale radiant panels that simulate fire exposure to test targeted structural features; intermediate live-fire flame spread and bushfire exposure apparatuses to evaluate fire performance indices in accordance with national and international standards; large-scale live-fire test apparatuses to evaluate the fire performance of buildings (e.g., facade and wall assemblies, etc.); and large-scale oxygen calorimetry to quantify scaled reaction to fire indices. These facilities support research and teaching activities on the development fire safe structures by characterising fire exposure on survivability and performance. Critically, the facility provides industry with a cost and time efficient pathway to product development not available elsewhere.