Document Type
Dissertation
Degree
Doctor of Philosophy (PhD)
Major/Program
Civil Engineering
First Advisor's Name
Mohammed Hadi
First Advisor's Committee Title
Committee Chair
Second Advisor's Name
Albert Gan
Second Advisor's Committee Title
Committee member
Third Advisor's Name
Xia Jin
Third Advisor's Committee Title
Committee member
Fourth Advisor's Name
Priyanka Alluri
Fourth Advisor's Committee Title
Committee member
Fifth Advisor's Name
Florence George
Fifth Advisor's Committee Title
Committee member
Keywords
Autonomous Driving Systems, Cooperative Driving Automation, Autonomous Vehicles, Model Predictive Control, Cooperative Adaptive Cruise Control, Ramp Metering, Freeway Merging Operations, Adaptive Cruise Control, Simulation Framework
Date of Defense
6-30-2023
Abstract
Simulation and modeling are critical for testing and evaluating automated driving systems (ADS) and cooperative driving automation (CDA). Co-simulation platforms that integrate multiple simulation tools and models can consider and assess the impacts of elements like vehicle dynamics, sensor configurations, perception algorithms, and wireless communications. However, their high computational needs restrict them from focusing on individual vehicle dynamics and short simulation periods, limiting their ability to assess the wider systemic impacts of autonomous vehicles (AV) and CDA technologies. While microscopic simulation tools are commonly utilized for evaluating system-level effects, research and implementation of advanced algorithms for emulating AV or CDA within microsimulation models is limited, leaving the larger impacts on traffic flow insufficiently assessed.
Aiming to address the identified research gap, a holistic simulation modeling framework and methodology are introduced. The framework utilizes advanced control algorithms found in co-simulation platforms and adapts them for implementation in microsimulation software, allowing for a comprehensive evaluation of the broad impacts of AV and CDA on traffic systems.
The proposed framework emphasizes the evaluation of AV and CDA technologies in merging operations, including their interactions with ramp metering. It involves data collection from detectors, AV, and CDA vehicles to support the ramp metering algorithm within the developed framework. In addition, the framework involves the use of a model predictive control (MPC) algorithm to optimize the merging tasks and the incorporation of adaptive cruise control (ACC) and cooperative adaptive cruise control (CACC) to emulate the autonomous and cooperative behavior of AV and CDA vehicles. This dissertation then applies the framework to a case study to demonstrate its effectiveness in simulating freeway merging operations in the presence of AV and CDA technologies. This demonstration confirms the framework's ability to generate consistent and logical results.
This dissertation contributes to transportation research by thoroughly analyzing CDA, its infrastructure support, and developing a simulation framework to emulate AV and CDA behavior. As such, this study provides a robust framework that enhances the comprehension of AV and CDA technologies, their potential to improve traffic operations, and their interactions with infrastructure-based management strategies, thereby supporting future research in this field.
Identifier
FIDC011129
Recommended Citation
Mata, Hector Donaldo, "Framework for Simulating Vehicle Automation and Cooperation in Freeway Merging Operations" (2023). FIU Electronic Theses and Dissertations. 5446.
https://digitalcommons.fiu.edu/etd/5446
Included in
Civil Engineering Commons, Navigation, Guidance, Control, and Dynamics Commons, Other Computer Engineering Commons, Transportation Engineering Commons
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