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Computing core allocations in cooperative games with an application to cooperative procurement

Cooperative game theory defines several concepts for distributing outcome shares in a cooperative game with transferable utilities. One of the most famous solution concepts is the core which defines a set of outcome allocations that are stable such that no coalition has an incentive to leave the gra...

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Published in:International journal of production economics 2010-11, Vol.128 (1), p.310-321
Main Authors: Drechsel, J., Kimms, A.
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Language:English
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description Cooperative game theory defines several concepts for distributing outcome shares in a cooperative game with transferable utilities. One of the most famous solution concepts is the core which defines a set of outcome allocations that are stable such that no coalition has an incentive to leave the grand coalition. In this paper we propose a general procedure to compute a core element (or to detect that no core allocation exists) which is based on mathematical programming techniques. The procedure proposed in this paper can be applied to a wide class of cooperative games where the characteristic function is given by the optimum objective function value of a complex optimization problem. For cooperative procurement, which is an example from the field of supply chain management where some literature on the core concept already exists, we prove the applicability and provide computational results to demonstrate that games with 150 players can be handled.
doi_str_mv 10.1016/j.ijpe.2010.07.027
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subjects Allocations
Associations
Computation
Cooperation
Cooperative game theory
Cooperative game theory Core Mathematical programming Procurement Lot sizing Inventory games Supply chain management
Core
Game theory
Games
Inventory games
Lot sizing
Mathematical analysis
Mathematical models
Mathematical programming
Optimization
Procurement
Purchasing
Studies
Supply chain management
title Computing core allocations in cooperative games with an application to cooperative procurement
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