TY - GEN
T1 - Adversarial Uncertainty in Multi-Robot Patrol.
AU - Agmon, N.
AU - Kraus, Sarit
AU - Kalinka, Gal A.
AU - Sadov, Vladimir
N1 - Place of conference:Pasadena, California, US
PY - 2009
Y1 - 2009
N2 - We study the problem of multi-robot perimeter patrol
in adversarial environments, under uncertainty
of adversarial behavior. The robots patrol around
a closed area using a nondeterministic patrol algorithm.
The adversary's choice of penetration point
depends on the knowledge it obtained on the patrolling
algorithm and its weakness points. Previous
work investigated full knowledge and zero
knowledge adversaries, and the impact of their
knowledge on the optimal algorithm for the robots.
However, realistically the knowledge obtained by
the adversary is neither zero nor full, and therefore
it will have uncertainty in its choice of penetration
points. This paper considers these cases, and offers
several approaches to bounding the level of uncertainty
of the adversary, and its influence on the
optimal patrol algorithm. We provide theoretical
results that justify these approaches, and empirical
results that show the performance of the derived algorithms
used by simulated robots working against
humans playing the role of the adversary is several
different settings.
AB - We study the problem of multi-robot perimeter patrol
in adversarial environments, under uncertainty
of adversarial behavior. The robots patrol around
a closed area using a nondeterministic patrol algorithm.
The adversary's choice of penetration point
depends on the knowledge it obtained on the patrolling
algorithm and its weakness points. Previous
work investigated full knowledge and zero
knowledge adversaries, and the impact of their
knowledge on the optimal algorithm for the robots.
However, realistically the knowledge obtained by
the adversary is neither zero nor full, and therefore
it will have uncertainty in its choice of penetration
points. This paper considers these cases, and offers
several approaches to bounding the level of uncertainty
of the adversary, and its influence on the
optimal patrol algorithm. We provide theoretical
results that justify these approaches, and empirical
results that show the performance of the derived algorithms
used by simulated robots working against
humans playing the role of the adversary is several
different settings.
UR - http://u.cs.biu.ac.il/~galk/Publications/Papers/ijcai09.pdf
M3 - Conference contribution
BT - the Twenty-First International Joint Conference on Artifcial Intelligence,
ER -