TY - JOUR
T1 - Measuring the expected gain of communicating constraint information
AU - Rosenfeld, Avi
AU - Kraus, Sarit
AU - Ortiz, Charles L.
PY - 2009
Y1 - 2009
N2 - In this paper we investigate methods for measuring the expected utility from communicating information in multiagent planning and scheduling problems. We consider an environment where human teammates can potentially add information to relax constraint information. As these problems are NP-complete, no polynomial algorithms exist for evaluating the impact of either adding or relaxing a certain constraint will have on the global problem. We present a general approach based on a notion we introduce called problem tightness. Distributed agents use this notion to identify those problems which are not overly constrained and, therefore, will not benefit from additional information that would relax those constraints. Finally, agents apply traditional machine learning methods based on their specific local problem attributes to attempt to identify which of the constrained problems will most benefit from added information. We evaluated this approach within a distributed c-TAEMS scheduling domain and found that this approach was effective overall.
AB - In this paper we investigate methods for measuring the expected utility from communicating information in multiagent planning and scheduling problems. We consider an environment where human teammates can potentially add information to relax constraint information. As these problems are NP-complete, no polynomial algorithms exist for evaluating the impact of either adding or relaxing a certain constraint will have on the global problem. We present a general approach based on a notion we introduce called problem tightness. Distributed agents use this notion to identify those problems which are not overly constrained and, therefore, will not benefit from additional information that would relax those constraints. Finally, agents apply traditional machine learning methods based on their specific local problem attributes to attempt to identify which of the constrained problems will most benefit from added information. We evaluated this approach within a distributed c-TAEMS scheduling domain and found that this approach was effective overall.
KW - Adaptive coordination
KW - Localized decisions
KW - Multiagent scheduling
UR - http://www.scopus.com/inward/record.url?scp=85006265412&partnerID=8YFLogxK
U2 - 10.3233/mgs-2009-0137
DO - 10.3233/mgs-2009-0137
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AN - SCOPUS:85006265412
SN - 1574-1702
VL - 5
SP - 427
EP - 449
JO - Multiagent and Grid Systems
JF - Multiagent and Grid Systems
IS - 4
ER -