Title :
Optimization of Shared Autonomy Vehicle Control Architectures for Swarm Operations
Author :
Sengstacken, Aaron J. ; DeLaurentis, Daniel A. ; Akbarzadeh-T, Mohammad R.
Author_Institution :
Dept. of Aeronaut. & Astronaut., Purdue Univ., West Lafayette, IN, USA
Abstract :
The need for greater capacity in automotive transportation (in the midst of constrained resources) and the convergence of key technologies from multiple domains may eventually produce the emergence of a “swarm” concept of operations. The swarm, which is a collection of vehicles traveling at high speeds and in close proximity, will require technology and management techniques to ensure safe, efficient, and reliable vehicle interactions. We propose a shared autonomy control approach, in which the strengths of both human drivers and machines are employed in concert for this management. Building from a fuzzy logic control implementation, optimal architectures for shared autonomy addressing differing classes of drivers (represented by the driver´s response time) are developed through a genetic-algorithm-based search for preferred fuzzy rules. Additionally, a form of “phase transition” from a safe to an unsafe swarm architecture as the amount of sensor capability is varied uncovers key insights on the required technology to enable successful shared autonomy for swarm operations.
Keywords :
fuzzy control; particle swarm optimisation; road vehicles; automotive transportation; fuzzy logic control implementation; fuzzy rules; human drivers; optimization; sensor capability; shared autonomy vehicle control architectures; swarm operations; Fuzzy logic; genetic algorithm (GA); road vehicle control; shared autonomy; Algorithms; Artificial Intelligence; Automobiles; Decision Support Techniques; Fuzzy Logic; Robotics;
Journal_Title :
Systems, Man, and Cybernetics, Part B: Cybernetics, IEEE Transactions on
DOI :
10.1109/TSMCB.2009.2035099