Our facilities
    MORTY Laboratory
rCITI’s overlaying MObility Research and TechnologY (MORTY) Laboratory, provides an excellent platform for technology development and use case opportunities:
- Developing new technology to support real time adaptive traffic systems that help reduce congestion, improve safety and reduce emissions.
 - Development of in-vehicle applications to help reduce motion sickness,
 - Developing tunnel technologies, that improve safety and autonomous vehicles.
 
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TRACSLab
Lead CI:Ìý
Manager:Ìý
Established from our ARC Linkage Infrastructure Equipment and Facility (LIEF) 2013 grant, the TRAvel Choice Simulation LABoratory, (TRACSLab) is a world-first in multi-modal, multi-user transportation visualisation platform. The facility allows researchers to study travel choice and interdependent behavioural characteristics by observation of group interactions.
TRACSLab @ ºÚÁÏÍø´óÊÂ¼Ç is made up of transport simulators (i.e. driving, cycling, and pedestrian simulators) networked together to answer fundamental research questions relating to travel choice, drivers’ behaviour and human factors, risk and safety, automotive technology, and infrastructure design.ÌýÌý
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TRACSLab @ ºÚÁÏÍø´óÊÂ¼Ç offers academic researchers, industry collaborators, and policy makers a safe and cost-effective platform to conduct experiment and test bedding of new technology or policy which otherwise would be too impractical or costly to be tested in real world. The facility is built on a custom simulator platform developed in-house by rCITI researchers and it is highly customisable and immersive. The open-source nature of the platform means that new functions can be programmed and added to suit each project requirements.
A high-fidelity environment can be 3D-modelled according to real world conditions, including traffic signage, building models, road furniture (bus stop, road lights, barriers, etc), road markings, etc and placed anywhere inside the simulation environment. Experiment parameters (e.g. weather, traffic composition and volume, time of day, etc.) can be set to consistently replicate a particular scenario. TRACSLab has also the ability to integrate with standard traffic microsimulation software, which are widely adopted in traffic studies and policy making process, to accurately simulates traffic behaviour. Complete observability and rich data collection are supported by state-of-the-art data collection instruments such as high-frequency data loggers, physiological monitoring devices, and eye trackers.
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This set-up enables the ability to simulate interaction between multitude of users with each simulator act as a mobility agent in one virtual environment. TRACSLab simulators are also portable and easily transportable to any location around the world. Experiments can be conducted on an international scale through a high-speed internet network, which makes collaboration with overseas researchers a much more feasible proposition. TRACSLab @ ºÚÁÏÍø´óÊÂ¼Ç is equipped with driving, cycling, and pedestrian simulators which are integrated in a networked platform. Each simulator is also customisable with the options of real car dashboard or 360-degrees virtual reality (VR) configurations depending on each project’s requirement.
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- Road policy and pricing
 - Self-driving and connected automated vehicle (CAV)
 - Intelligent transport systems (ITS)
 - Drivers’ risk and safety
 - Multi-modal interaction of road users
 
- Travel choice
 - Design of traffic infrastructure and road network
 - Human factors analysis of drivers’ behaviour
 - Automotive technology and interface design
 - Road policy and pricing
 
 - Road policy and pricing
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The TRACSLab team consists of leading researchers at rCITI and the iCinema Centre at ºÚÁÏÍø´óÊÂ¼Ç whose expertise ranges from the use of stated choice experiments, travel network modelling and experimental economics in conducting travel behaviour research as well as simulation and visualisation.
 
CityXLab Virtual Laboratory
CityX Virtual Laboratory focuses on the development and application of data-model driven methods to better plan, manage and operate urban transport systems. Using urban data visualisation, analytics, modelling, and simulation, is improving our scientific understanding of smart cities, with an overarching aim to mitigate urban traffic congestion and improve urban liveability.
CityXLab explores topics at the intersection of transportation engineering, urban planning, network science, and information technology.Ìý
We studying urban transportation systems from a complex network perspective; network science is a highly active interdisciplinary research area inspired by numerous empirical studies of computer and social networks.Ìý
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- Big and open urban data visualisation and analytics
 - Complex networks in transportation
 - Traffic flow theory and characteristics
 - Pedestrian crowd modeling
 - Travel demand and behavior modeling
 - Large-scale transportation network modeling and simulation
 
 
SafeFuture Lab
Lab Director(s):
- Prof. Taha Hossein Rashidi
 - Prof. Vinayak Dixit
 - Prof. Michael Regan
 - Associate Prof. Meead Saberi
 - DrÌýElnaz (Elli) Irannezhad
 
Lab Manager(s):ÌýÌý
- Sabour Khosrav
 
Engineering safer mobility for tomorrow
About the Lab:
The SafeFuture Lab at the Research Centre for Integrated Transport Innovation (rCITI), ºÚÁÏÍø´óÊÂ¼Ç Sydney, advances safety, resilience, and sustainability in next-generation transport systems. Our research explores how data, automation, and intelligent design can transform the way we manage risk and safeguard all road users.
By integrating engineering, behavioural science, machine learning, artificial intelligence, and advanced analytics, SafeFuture Lab focuses on predictive safety modelling, connected and automated vehicle safety, heavy vehicle operations, driver training, and telematics.Ìý
SafeFuture Lab supports governments and industry partners in building safer and smarter mobility systems and in developing evidence-based policy solutions.
Mission:
To deliver cutting-edge research that empowers policymakers and industry to design and operate transport systems that are inherently safe, adaptive, and resilient — ensuring safer journeys for generations to come.
Research Themes:
- Predictive safety analytics and data-driven risk modelling
 - Heavy vehicle safety, driver training, and telematics integration
 - Human factors and behaviour in connected transport environments
 - Safety of automated, electric, and intelligent mobility systems
 - Infrastructure design, resilience, and safety policy innovation
 
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Ensuring that truck drivers take mandatory rest breaks is essential for improving road safety and preventing fatigue-related crashes. In this project, aÌýlarge-scale telematics (IAP) data of over-size over-mass heavy vehicles was used to infer driver rest-stop behaviour across Australia’s freight network. By applying an advanced machine learning method (Continuous Hidden Markov Model), we were able to automatically identify trip segments and classify millions of stops, such as rest breaks, loading and unloading, or refuelling, without relying on driver logbooks or manual surveys. The model successfully processed over 71 million GPS records, offering a powerful data-driven method for monitoring compliance with rest regulations. These insights help logistics operators, regulators, and road agencies better understand where and when heavy vehicle drivers rest, enabling targeted safety interventions, improved infrastructure planning, and more effective fatigue management policies.
CI's:ÌýDrÌýElnaz (Elli) Irannezhad & Mehdi Taghavi
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Pedestrians often take the most direct route—known as a desire line—to switch between transport modes, even when this path is not the safest option. This project investigated why some people choose informal shortcuts over designated pedestrian routes at busy Melbourne public transport stations and intersections. Using more than 4,500 field observationsÌýand 424 intercept surveysÌýcollected over a week at two key sites—Queensbridge at CrownÌýand Russell & Bourke Streets—the study analysed how time of day, weather, gender, age, mobility, and other behavioural factors influence pedestrian decisions. Results showed that around one-third of pedestriansÌýused unsafe desire lines, especially during peak hours or when rushing to catch transport. The findings highlight the importance of pedestrian-centric designÌýin enhancing safety at public transport interchanges. The research was carried out by the University of NSW’ Research Centre for Integrated Transport Innovation (rCITI) for the Department of Transport Victoria.
Project Manager:ÌýDrÌýElnaz (Elli) Irannezhad
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Empowering Safer Travel for Women After Dark in Greater Sydney
The ºÚÁÏÍø´óÊÂ¼Ç School of Civil and Environmental Engineering, in partnership with Cardno, led a groundbreaking initiative to improve safety for women travelling at night.
Commissioned by Transport for NSW as part of the Safety After Dark Innovation Challenge, the project was designed to help women make more informed travel choices and feel safer in transit environments after dark.
The research team developed a digital tool that quantified passive surveillance—the presence of open and active street-level businesses such as restaurants, shops, and services. These establishments contributed to a sense of safety by increasing visibility and reducing opportunities for crime.
The project introduced a Passive Surveillance Index, which scored streets based on business operating hours and other environmental factors. This index was integrated into a web and/or mobile application, enabling women to identify safer routes and areas with higher levels of passive surveillance.
By providing real-time, location-based safety insights, the tool empowered women to navigate the city with greater confidence and freedom. The final outcome was an action plan for Transport for NSW, offering practical recommendations for design, technology, and behavioural interventions to enhance safety across Greater Sydney.
This initiative marked a significant step toward inclusive, data-driven urban planning that prioritised the lived experiences of women in public spaces.
CI's:ÌýDr Meead Saberi & Linh Truong