Reference:
L.D. Baskar,
B. De Schutter, and
H. Hellendoorn,
"Model-based predictive traffic control for intelligent vehicles:
Dynamic speed limits and dynamic lane allocation," Proceedings of
the 2008 IEEE Intelligent Vehicles Symposium (IV'08), Eindhoven,
The Netherlands, pp. 174-179, June 2008.
Abstract:
We consider traffic management and control approaches for automated
highway systems with a combination of intelligent vehicles and
roadside controllers. The vehicles are organized in platoons with
short intraplatoon distances, and larger distances between platoons.
Moreover, all vehicles are assumed to be automated, i.e., throttle,
braking, and steering commands are determined by an automated on-board
controller. Within a platoon the vehicles coordinate their actions so
as to maintain a small but safe intervehicle distance, using adaptive
cruise control methods. Platoon leaders receive speed set-points and
lane change commands from the roadside controller. We propose a
model-based predictive control (MPC) approach to determine appropriate
speed limits and lane allocations for the platoons. In general, this
results in mixed-integer optimization problems. We discuss some
methods to solve these problems suboptimally on-line. The proposed
approach is then applied to a simple simulation example in which the
aim is to minimize the total time all vehicles spend in the network by
optimally assigning dynamic speed limits and lane changes.