IEEE Transactions on Intelligent Transportation Systems · 2015 · 174 citations · 43 references
ComputingAutomotive EngineeringAutonomous SystemsAutonomous VehiclesDistributed SystemsVehicle DynamicsDecentralized ControlDistributed AlgorithmsDistributed ControlIntelligent Transportation SystemsVehicle ControlVehicle Control SystemsControl Framework DesignCooperative ControlDistributed Cooperative ControlMicroscopic Traffic ModelingReceding Horizon ControlSimulation Of Transportation SystemsTraffic Flow ModelingTraffic Simulation
We design controllers and derive implementable algorithms for autonomous and cooperative car-following control (CFC) systems under a receding horizon control framework. An autonomous CFC system controls vehicle acceleration to optimize its own situation, whereas a cooperative CFC (C-CFC) system coordinates accelerations of cooperative vehicles to optimize the joint situation. To realize simultaneous control of many vehicles in a traffic system, decentralized and distributed algorithms are implemented in a microscopic traffic simulator for CFC and C-CFC controllers, respectively. The impacts of the proposed controllers on dynamic traffic flow features, particularly on formation and propagation of moving jams, are investigated through a simulation on a two-lane freeway with CFC/C-CFC vehicles randomly distributed. The simulation shows that the proposed decentralized CFC and distributed C-CFC algorithms are implementable in microscopic simulations, and the assessment reveals that CFC and C-CFC systems change moving jam characteristics substantially.
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