The future of Australian cities/regions in a post-pandemic world
A study of the attraction/retention of businesses/households to regional cities, & the long-term impacts of COVID on spatial patterns of employment/settlement.
A study of the attraction/retention of businesses/households to regional cities, & the long-term impacts of COVID on spatial patterns of employment/settlement.
This project will investigate likely contributing factors for traffic crashes involving traffic signal posts in Queensland, and strategies to mitigate these collisions.
Our ‘Encouraging continuation of work from home post-pandemic’ project has been completed, and the final report is available here.
This project will create a model for estimating delays at Perth’s traffic signals, which would inform project decisions and operational strategies.
This project investigates the use of an integrated package of IoT, computer vision and machine learning to support smart bridge health monitoring and prediction.
This project aims to improve travel demand calibration and accuracy of 24 hour/ 7 days network simulation models for any hour of any day.
In this PhD project data analytics on Bluetooth trajectories and traffic states will be applied to empirically estimate the assignment matrix for the network.
This PhD project aims to develop a system with a data-driven human driver behaviour model that can help detect the attention level of drivers.
This project will offer a real-time decision support tool for traffic operations centres to predict network congestion, and evaluate the possible responses.
The objective of this PhD study is to develop an eco-driving system for a mixed traffic consisting of CAVs and human-driven vehicles (HVs) on urban roads.
Cooperative perception is an emerging and promising technology for CAVs. Its further development has been the focus of a recently completed iMOVE project.
This project will identify and trial suitable systems for automatic real-time patronage counting for replacement bus services during Melbourne rail disruptions.
This project will develop data fusion and machine learning models to estimate service use for Melbourne trams and make real-time prediction of tram loads.
Use of AI and machine learning techniques in collecting AusRAP data has potential to reduce costs and increase the frequency and accuracy of its information.
This project will provide guidance on best practice for the procurement and safe use of incident response vehicles and truck-mounted attenuators.
The objective of this project is to establish a vehicle as a test bed to enable applied research by the ARRB FTS team into deployment of CAVs in Australia.