Artificial Intelligence for Regional Traffic Safety: Predicting Crash Risk and Recommending Countermeasures
School of Engineering and Technology
Seyedehsan Seyedabrishami
Synopsis
Regional and remote areas carry a disproportionate share of serious road trauma, yet they are often under-served by the data-rich safety analysis methods developed for major cities. Regional roads present distinct challenges — higher speeds, longer emergency response times, mixed heavy-vehicle and local traffic, variable road conditions, and sparse or uneven crash data — that limit the direct transfer of urban safety models.
This project develops artificial intelligence and machine learning models to analyse regional traffic safety, identify high-risk locations and contributing factors, and recommend targeted, evidence-based countermeasures to reduce crash frequency and severity. Using crash records, traffic and network data, road geometry, and environmental and land-use data, the research will build predictive models of crash risk (for example, using deep learning, ensemble methods, or spatial-statistical approaches) and produce interpretable risk maps across the regional network. A key focus is not only prediction but decision support: linking identified risk factors to appropriate engineering, policy, or enforcement countermeasures, and estimating their likely safety benefit.
The outcomes aim to give road authorities such as the Queensland Department of Transport and Main Roads a practical, transferable tool for prioritising safety investment across large regional networks, contributing to the national goal of reducing road fatalities and serious injuries.
Engineering
Road safety; traffic safety; artificial intelligence; machine learning; deep learning; crash prediction; crash risk mapping; regional and rural roads; countermeasure evaluation; road network analysis; spatial analysis; transport data analytics; Safe System; Queensland.
Second half 2026
Either Masters or Doctorate
Gladstone
Other Special Notes
The successful applicant will have a background in civil/transport engineering, data science, computer science, statistics, or a closely related field, with strong quantitative skills. Programming experience (e.g. Python or R) and familiarity with machine learning and/or GIS is highly desirable. Applicants should meet CQUniversity's HDR entry and English-language requirements. The project can be scaled to either a Master's or Doctoral candidature. Opportunities may exist to collaborate with industry and government road-safety stakeholders. Interested applicants are encouraged to contact the supervisor to discuss the project scope and their fit before applying.
