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DTSTART:20221106T010000
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DTSTAMP:20220915T002632Z
UID:973B4F8C-CAD7-4D7B-A3CC-1171F6B79BE5
DTSTART;TZID=America/New_York:20220913T173000
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DESCRIPTION:Many existing approaches for coordinating heterogeneous teams o
 f robots either consider small numbers of agents\, are application-specifi
 c\, or do not adequately address common real-world requirements\, e.g.\, s
 trict deadlines or intertask dependencies. We introduce scalable and robus
 t algorithms for task-based coordination from high-level specifications (S
 cRATCHeS) to coordinate such teams. We define a specification language\, c
 apability temporal logic\, to describe rich\, temporal properties involvin
 g tasks requiring the participation of multiple agents with multiple capab
 ilities\, e.g.\, sensors or end effectors. Arbitrary missions and team dyn
 amics are jointly encoded as constraints in a mixed integer linear program
 \, and solved efficiently using commercial off-the-shelf solvers. ScRATCHe
 S optionally allows optimization for maximal robustness to agent attrition
  at the penalty of increased computation time. We include an online replan
 ning algorithm that adjusts the plan after an agent has dropped out. The f
 lexible specification language\, fast solution time\, and optional robustn
 ess of ScRATCHeS provide a first step toward a multipurpose on-the-fly pla
 nning tool for tasking large teams of agents with multiple capabilities en
 acting missions with multiple tasks. We present randomized computational e
 xperiments to characterize scalability and hardware demonstrations to illu
 strate the applicability of our methods.\n\nSpeaker(s): Dr. Kevin Leahy \,
  \n\nmassrobotics\, Boston\, Massachusetts\, United States
LOCATION:massrobotics\, Boston\, Massachusetts\, United States
ORGANIZER:gmiragli@mathworks.com
SEQUENCE:0
SUMMARY:Multi-Agent Coordination from High-Level Specifications
URL;VALUE=URI:https://events.vtools.ieee.org/m/324110
X-ALT-DESC:Description: &lt;br /&gt;&lt;p&gt;Many existing approaches for coordinating 
 heterogeneous teams of robots either consider small numbers of agents\, ar
 e application-specific\, or do not adequately address common real-world re
 quirements\, e.g.\, strict deadlines or intertask dependencies. We introdu
 ce scalable and robust algorithms for task-based coordination from high-le
 vel specifications (ScRATCHeS) to coordinate such teams. We define a speci
 fication language\, capability temporal logic\, to describe rich\, tempora
 l properties involving tasks requiring the participation of multiple agent
 s with multiple capabilities\, e.g.\, sensors or end effectors. Arbitrary 
 missions and team dynamics are jointly encoded as constraints in a mixed i
 nteger linear program\, and solved efficiently using commercial off-the-sh
 elf solvers. ScRATCHeS optionally allows optimization for maximal robustne
 ss to agent attrition at the penalty of increased computation time. We inc
 lude an online replanning algorithm that adjusts the plan after an agent h
 as dropped out. The flexible specification language\, fast solution time\,
  and optional robustness of ScRATCHeS provide a first step toward a multip
 urpose on-the-fly planning tool for tasking large teams of agents with mul
 tiple capabilities enacting missions with multiple tasks. We present rando
 mized computational experiments to characterize scalability and hardware d
 emonstrations to illustrate the applicability of our methods.&lt;/p&gt;
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