The Advanced Cyber Security Engineering Research Centre (ACSRC) research primarily aims to address the challenges that arise in the design and analysis of secure and trusted systems in a heterogeneous distributed environment. This involves distributed systems, networks, Internet of Things (IoT), software defined architectures, mobile devices and industrial control systems.
We use state-of-the-art mathematical analysis techniques and experimental measurement tools to accurately and objectively assess operator performance.
Containerised Chemical-Looping-Based Oxygen Plants for Field Hospitals and Hospital Ships
Contaminated site characterisation and remediation (e.g PFAS); environmental analysis of explosives and chemical warfare residues
Our research is studying the damage probability of deeply buried protective structures against earth-penetration weapons based on random field theory, experimental studies and numerical simulations that consider the inherently heterogeneous nature of earth materials.
Our project is analysing the settings of strategy (from the year 1783 to 2020) involving the broad interrelationship between Australian trade policy, industrial capability, defence posture and expeditionary warfare.
This project aims at advancing the development of a compact and lightweight battery-operated unit for production of water (4 litres per day) from atmospheric moisture.
For human safety, electrical systems are required to have neutral wire connected to earth. In some applications (ships, aircrafts, and underground operations) neutral cannot be earthed, causing problems of undetected faults and dangerous potentials. This research has developed a high quality variable speed drive for electric motors, which also provides increased safety and instant fault detection in unearthed neutral systems.
Provide advanced objective biometrically based assessment methodologies to capture how stress, attention and cognitive load impede decision making ability.
Dynamic impact and fragmentation are highly complex phenomena. Members of the Priority Research Centre for Geotechnical Science and Engineering have been conducting world-class research on the topic applied to rockfall engineering.
To develop methods and software that can efficiently assess the bearing capacity and factor of safety of civil and military infrastructure such as tunnels, roads, bunkers and trenchers.
Ozofractionative Catalyzed Reagent Addition (OCRA) is a process in which ozone microbubbles are sparged through EPCimpacted water to facilitate gas-liquid interface partitioning of dissolved EPCs into a foam fraction. The low volume of concentrate can then be destroyed. Our research is focused on optimisation and source speciation.
Our research has redesigned the traditional fuel-driven propulsion system to include pure electric and hybrid electric modes.
Explosive and Ballistic Protection for Defence Infrastructure. We provide risk-based safety advice on the siting of explosive ordnance, improvised explosive device reliability and counter-measures, force protection and weaponeering.
This includes fixed structures such as defence buildings, bunkers, aircraft shelters, command posts and ammunition depots, as well as the critical components of weapon platforms such as submarines (battery and engine rooms), ships (engine room), tanks and other armoured personnel carriers (ammunition storage and engine compartments).
As a material with high potential for revolutionising defence capabilities in the next decade, graphene fabrication is of interest in the military domain. We have developed a mechanism for the formation of high-quality graphene at less than half the temperature typically required (400°C vs 1000°C) using a range of liquid carbon sources trapped in a polymer matrix.
The human cardiovascular system functions normally or abnormally based on pressure and flow within blood vessels and cardiac chambers. The future of cardiovascular medicine will see a reliance on implantable pressure sensors that can detect, and wirelessly report, pressures within chambers to external signal receivers, and then to treating clinicians.
Investigation of mass distribution (water, ice, and solid Earth) caused by climate change and natural hazards by analysing spacecraft radar and laser ranging, accelerometer, and GNSS instruments. Development of the high-precision cryogenic gravimetric sensor. Detection of the Earth's gravity has implication to satellite trajectory, positioning, guidance and navigation.
Our project analyses the performance of autonomous systems on various ground conditions using physical tests and virtual prototyping.
Microbial toxins threaten human health, while other natural products from these extremophiles have beneficial medicinal and industrial applications.
Space Weather impacts all technology in space and the ionosphere including HF radar surveillance, space situational awareness, satellite performance and operations and humans in space. Mathematical models in concert with experimental data are used to predict and mitigate adverse space weather conditions and impacts.
Conducted in collaboration with schools, businesses and the United States Marine Corps, this project aims to study and develop quality coaching and supervision practices to improve the quality of teaching and learning within organisations.
This mathematics research project aims to construct tools for signal and image processing.
In the Nann research group, we fabricate and characterise new, functional nanomaterials for the purpose of creating innovative energy storage solutions. Our focus is on luminescent, magnetic (multiferroic), dielectric, upconverting, Raman active, and nanomaterials with complex nanoarchitectures.
Enhanced Human Performance Through Optimisation Of Interactions Between Humans, Systems, And Data
Our research project is focused on the development of an efficient numerical simulation method, known as the phase field finite element method, for modelling the propagation of fractures in brittle-elastic materials.
Our centre is actively working on the development of advanced magnetic materials for magnetic sensors and microwave radar absorption of magnetic materials.
Biosensors offer an opportunity to monitor soldier physical and mental readiness and the state of their environments in real time. They can detect a wide variety of potential problems as they arise, enabling troops to act swiftly and appropriately. Drawing on our capabilities in functional roll-to-roll (R2R) printing, our printed biosensor platform can be tailored to meet a range of needs, providing a pathway for reliable, large-scale, low-cost production.
The Centre for Infrastructure Performance and Reliability deals with practical aspects of marine and related corrosion, and with mathematical models based on physico-chemical bases to predict likely corrosion both short and long-term, including the possibility of microbiological influences.
Printed solar cells offer a range of exciting deployment possibilities, including retractable solar farms and wearable solar. While printed solar technology is not new, viable real-world applications of this technology are yet to be realised. We are the first group in Australia, and one of few globally, to undertake a commercial-scale pilot of printed solar.
The aim of our project is to advance the material science and engineering that underpins the direct conversion of temporal changes in the ambient temperature to small quantities of electrical power. The resulting power can be used for ‘fit and forget’ self-powered wireless autonomous devices, wireless autonomous sensor networks and low-power electronic devices.
The principal vision for this project is to determine the fundamental science underpinning the functionalisation of Portland cements for pyroelectric energy harvesting from concrete-based structures such as aircraft shelters, ports, command posts and ammunition depots. Pyroelectric energy harvesting allows for the direct conversion of fluctuating ambient temperature into electricity
Since 2000, the Defense and Veterans Brain Injury Center, USA has identified more than 280,000 cases of traumatic brain injury (TBI) in US service members, many resulting from combat blast exposure.
The Scanning Helium Microscope (SHeM) is the world's first electrically inert microscope. Produced by our research team in collaboration with key partners, the microscope uses neutral helium to image organic and delicate materials with zero damage.
Anechoic materials fitted to submarines and other similar platforms, such as torpedoes, can absorb and scatter acoustic energy, therefore reducing the probability of detection by an enemy's active sonars.
Our project focuses on advancing current research aimed at developing stealth petrol-powered mini generators (~1-10 kW) with noise and heat signatures below those of the ambient levels. The application of this technology is in the forward operating bases, where excessive noise or heat emitted from mini generators significantly increases the enemy's ability to detect and locate the base
The mental health and well-being of serving and ex-serving Australian Defence Force (ADF) personnel is of paramount importance, with a recent national audit indicating mental health disorders are a major cause of reduced quality of life for many members, with direct impacts on their families. The most common mental health concerns are depression, anxiety, post-traumatic stress, substance use, and suicide, with comorbidity between conditions common.