Grant: Discovery Grants Program - Individual
University of Windsor
$42,000.00
Development and Application of Machine Learning and Microsimulation Models to Study Traffic at Canada's Busiest Land Border Crossings
FY 2023-24
Summary
The performance of major truck crossings is critical to Canada's economic performance and trade relationships with the U.S. To date, research to study traffic at major Canadian land border facilities and corridors has been limited due to the lack of appropriate data. However, there is a critical need for developing and using accurate short-term predictive models that can help carriers, land border operators and traffic engineers determine traffic conditions at land borders in real-time up to two hours in advance. There is also a need for developing detailed simulation models that can help decision-makers to understand the impacts that disruptive vehicle technology (i.e., connected and autonomous) will have on border traffic conditions. The specific short-term objectives of this research program are: 1) Advance the current state of knowledge on land border crossing movements and supply chain processes in Canada with the help of real-time border related data; 2) Develop, implement, and test a variety of machine learning and deep learning models using real-time data collected from traffic sensors deployed by the applicant for the Ambassador Bridge, Canada's Busiest land border, to perform short-term prediction of border crossing times and traffic volumes; 3) Calibrate micro-analytical models to simulate and analyze car-truck interaction in a complex and highly congested border corridor and to simulate the impacts that connected and autonomous vehicles in the traffic stream will have on border traffic conditions; and 4) devise a list of measures to characterize truck freight fluidity at Canada's busiest land border crossings. In the long run, the objective of the conducted work will be to develop integrated simulation and microsimulation predictive models for freight transportation, trade flow and supply chain movements, to examine policies that could improve the performance of traffic on major congested corridors and cross-border points. The novelty of the proposed research program is threefold: 1) the work is the first of its kind to utilize real-time data obtained from dedicated border related traffic sensors for the Ambassador Bridge to understand border traffic patterns and delays; 2) the work will apply a suite of new machine learning and deep learning models to develop operational models that can perform real-time predictions for the border; and 3) the work will develop a regional microsimulation model for cross-border traffic movements to support the future transportation planning process for major Canadian cross-border corridors and facilities. To our knowledge, this is the only research program in Canada that is focused on such important and applied border related problem. Overall, this research program builds on the research work that the applicant has been conducting for the past 10 years at the Cross-Border Institute. The program will also contribute to the training of a number of highly qualified personnel.
Program
Discovery Grants Program - Individual
Recipient
Location
Ontario, Canada
Recipient Type
Academia
Type
Grant
Source
NSERC's Awards Data
As published
Application id
RGPIN-2023-04529
Name nom
Maoh, Hanna
Department département
Civil and Environmental Engineering
Organization id
37
Institution établissement
University of Windsor
Province en
Ontario
Province fr
Ontario
Country en
CANADA
Country fr
CANADA
Fiscal year exercice financier
2023
Competition year année de concours
2023
Award amount
42000
Program id
RGPIN
Program name en
Discovery Grants Program - Individual
Program name fr
Programme de subventions à la découverte - individuelles
Group en
DISCOVERY RESEARCH
Group fr
RECHERCHE AXÉE SUR LA DÉCOUVERTE
Committee code
1509
Committee name en
Civil, Industrial and Systems Engineering
Committee name fr
Génie civil, industriel et des systèmes
Area of application code
1206
Area of application group en
Advancement of knowledge
Area of application group fr
Avancement des connaissances
Area of application en
Engineering
Area of application fr
Génie
Research subject code
4100
Research subject group en
Geographical information
Research subject group fr
Geographical information
Research subject en
Information géographique
Research subject fr
Information géographique
Application title
Development and Application of Machine Learning and Microsimulation Models to Study Traffic at Canada's Busiest Land Border Crossings
Keyword
Cross-Border Transportation; Deep Learning; Long-Haul; Machine Learning; Microsimulation; Neural Networks; Predictions; Real-time; Traffic; Trucks
Application summary
The performance of major truck crossings is critical to Canada's economic performance and trade relationships with the U.S. To date, research to study traffic at major Canadian land border facilities and corridors has been limited due to the lack of appropriate data. However, there is a critical need for developing and using accurate short-term predictive models that can help carriers, land border operators and traffic engineers determine traffic conditions at land borders in real-time up to two hours in advance. There is also a need for developing detailed simulation models that can help decision-makers to understand the impacts that disruptive vehicle technology (i.e., connected and autonomous) will have on border traffic conditions. The specific short-term objectives of this research program are: 1) Advance the current state of knowledge on land border crossing movements and supply chain processes in Canada with the help of real-time border related data; 2) Develop, implement, and test a variety of machine learning and deep learning models using real-time data collected from traffic sensors deployed by the applicant for the Ambassador Bridge, Canada's Busiest land border, to perform short-term prediction of border crossing times and traffic volumes; 3) Calibrate micro-analytical models to simulate and analyze car-truck interaction in a complex and highly congested border corridor and to simulate the impacts that connected and autonomous vehicles in the traffic stream will have on border traffic conditions; and 4) devise a list of measures to characterize truck freight fluidity at Canada's busiest land border crossings. In the long run, the objective of the conducted work will be to develop integrated simulation and microsimulation predictive models for freight transportation, trade flow and supply chain movements, to examine policies that could improve the performance of traffic on major congested corridors and cross-border points. The novelty of the proposed research program is threefold: 1) the work is the first of its kind to utilize real-time data obtained from dedicated border related traffic sensors for the Ambassador Bridge to understand border traffic patterns and delays; 2) the work will apply a suite of new machine learning and deep learning models to develop operational models that can perform real-time predictions for the border; and 3) the work will develop a regional microsimulation model for cross-border traffic movements to support the future transportation planning process for major Canadian cross-border corridors and facilities. To our knowledge, this is the only research program in Canada that is focused on such important and applied border related problem. Overall, this research program builds on the research work that the applicant has been conducting for the past 10 years at the Cross-Border Institute. The program will also contribute to the training of a number of highly qualified personnel.