Optimal minimax pursuit evasion on a Manhattan grid

The optimal control of a pursuer searching for a slower moving evader on a Manhattan grid road network is considered. The pursuer does not have on-board capability to detect the evader and relies instead on Unattended Ground Sensors (UGSs) to locate the evader. We assume that all the intersections i...

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Published in2013 American Control Conference pp. 3421 - 3428
Main Authors Krishnamoorthy, K., Darbha, S., Khargonekar, P. P., Casbeer, D., Chandler, P., Pachter, M.
Format Conference Proceeding
LanguageEnglish
Published IEEE 01.06.2013
Subjects
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ISBN1479901776
9781479901777
ISSN0743-1619
DOI10.1109/ACC.2013.6580360

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Abstract The optimal control of a pursuer searching for a slower moving evader on a Manhattan grid road network is considered. The pursuer does not have on-board capability to detect the evader and relies instead on Unattended Ground Sensors (UGSs) to locate the evader. We assume that all the intersections in the road network have been instrumented with UGSs. When an evader passes by an UGS location, it triggers the UGS and this time-stamped information is stored by the UGS. When the pursuer arrives at an UGS location, the UGS informs the pursuer if and when the evader passed by. When the evader and the pursuer arrive at an UGS location simultaneously, the UGS is triggered and this information is instantly relayed to the pursuer, thereby enabling "capture".We derive exact values for the optimal worst case time to capture the evader on the Manhattan grid and the corresponding pursuit policy.
AbstractList The optimal control of a pursuer searching for a slower moving evader on a Manhattan grid road network is considered. The pursuer does not have on-board capability to detect the evader and relies instead on Unattended Ground Sensors (UGSs) to locate the evader. We assume that all the intersections in the road network have been instrumented with UGSs. When an evader passes by an UGS location, it triggers the UGS and this time-stamped information is stored by the UGS. When the pursuer arrives at an UGS location, the UGS informs the pursuer if and when the evader passed by. When the evader and the pursuer arrive at an UGS location simultaneously, the UGS is triggered and this information is instantly relayed to the pursuer, thereby enabling "capture".We derive exact values for the optimal worst case time to capture the evader on the Manhattan grid and the corresponding pursuit policy.
Author Khargonekar, P. P.
Darbha, S.
Krishnamoorthy, K.
Casbeer, D.
Chandler, P.
Pachter, M.
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Snippet The optimal control of a pursuer searching for a slower moving evader on a Manhattan grid road network is considered. The pursuer does not have on-board...
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StartPage 3421
SubjectTerms Delays
Games
History
Roads
Sensors
Switches
Trajectory
Title Optimal minimax pursuit evasion on a Manhattan grid
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