2012 · 25 citations · 17 references
ComputingAutonomous SystemsAutonomous VehiclesPath PlanningVehicle DynamicsCollision AvoidanceIntelligent AgentsMulti-agent SystemsTraffic EngineeringTraffic Flow ManagementVehicle ControlAutonomous Vehicle Path PlanningManeuver ControlManeuvering Mathematical ModelsManeuvering PerformanceMulti-agent Path PlanningUrban Traffic FlowVehicle Path PlanningWireless Communication Systems
The dynamics of multi-agent in nature have been largely studied for a long time to investigate how the aggregation of agents can move smoothly in complex environments without collision. The main insights can be summarized such that the aggregated dynamics of animals and particles can be explained by an individual's simple rules. In a similar vein, we conjecture that such simple rules for vehicle maneuvering can accommodate the fluid flow of traffic and reduce car accidents in highway and urban areas. In this paper, we first show the Reynolds' three rules are applicable to autonomous driving on a single lane. Moreover, we provide additional requirements and algorithms for multiple lanes. Based on these results, we show that the proposed nature-inspired driving maneuver can increase traffic flow by 1) mitigating shockwave at bottlenecks and 2) extending the perception range for better path planning, which requires the support of the vehicle autonomy and wireless communication, respectively. Finally, we prove the feasibility of our work with experiments using multiple UAVs.
17
Flocks, herds and schools: A distributed behavioral model
Craig W. Reynolds · 1987 · 7.8K citations
Life Sciences, Biology, Zoology +17
John F. Nash · Annals of Mathematics · 1951 · 6.6K citations