Envy Stable Solutions for Allocation Problems with Public Resourses

Authors

  • Natalia I. Naumova Saint Petersburg State University

Abstract

We consider problems of "fair" distribution of several different public resourses. If τ is a partition of a finite set N, each resourse cj is distributed between points of Bj ∈ τ. We suppose that either all resourses are goods or all resourses are bads. There are finite projects, each project use points from its subset of N (its coalition). A is the set of such coalitions. The gain/loss function of a project at an allocation depends only on the restriction of the allocation on the coalition of the project. The following 4 solutions are considered: the lexicographically maxmin solution, the lexicographically minmax solution, a generalization of Wardrop solution. For fixed collection of gain/loss functions, we define envy stable allocations with respect to Г, where the projects compare their gains/losses at fixed allocation if their coalitions are adjacent in Г. We describe conditions on A, τ, and Г that ensure the existence of envy stable solutions, and conditions that ensure the enclusion of the first three solutions in envy stable solution.

Keywords:

lexicographically maxmin solution, Wardrop equilibrium, envy stable solution, equal sacrifice solution

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References

Chernysheva, E. (2017). Admissible collections of coalitions for games with restricted cooperation. (Russian.) Graduation Project. Saint Petersburg State University. Applied Mathematics and Computer Science. Operations Research and Decision Making in Optimisation, Control and Economics Problems. Saint Petersburg, 2017.

Krylatov, A.Y. and Zakharov, V.V. (2017). Game-Theoretic Approach for Modeling of Selfish and Group Routing. In: Contributions to Game Theory and Management GTM2016 Vol. 10 Collected Papers. Ed. by L.A.Petrosjan and N.A.Zenkevich. Saint Petersburg University, Saint Petersburg, 162–174.

Mazalov, V.V. (2010). Mathematical Game Theory and Applications. (Russian) Lan, Saint Petersburg, 448pp.

Naumova, N. (1983). M-systems of relations and their application in cooperative games. Vestnic Leningrad Univ. Math. Vol.11, 67–73.

Naumova, N. (2011). Claim problems with coalition demands. In: Contributions to Game Theory and Management GTM2010 Vol. 4 Collected Papers. Ed. by L.A.Petrosjan and N.A.Zenkevich. Graduate School of Management Saint Petersburg University, Saint Petersburg, 311–326.

Naumova, N. (2012). Generalized proportional solutions to games with restricted cooperation. In: Contributions to Game Theory and Management GTM2011 Vol. 5 Collected Papers. Ed. by L.A.Petrosjan and N.A.Zenkevich. Graduate School of Management St.Petersburg University, St. Petersburg, 230–242.

Naumova, N. (2013). Solidary solutions to games with restricted cooperation. In: Contributions to Game Theory and Management GTM2012 Vol. 6 Collected Papers. Ed. by L.A.Petrosjan and N. A.Zenkevich. Graduate School of Management St.Petersburg University, St. Petersburg, 316–337.

Schmeidler, D. (1969). The nucleolus of a characteristic function game. SIAM Journal on Applied Mathematics, 17(6), 1163–1170.

Sudholter, P. and Peleg, B. (1998). Nucleoli as maximizers of collective satisfaction functions. Social Choice and Welfare, 15, 383–411.

Vilkov, V.B. (1974). The nucleolus in cooperative games without side payments. (Russian) Journal of computational mathematics and mathematical physics, 14(5), 1327–1331.

Wardrop, J.G. (1952). Some theoretical aspects of road traffic research. Proc. Institution of Civil Engineers, 2, 325–378.

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Published

2022-02-23

How to Cite

Naumova, N. I. (2022). Envy Stable Solutions for Allocation Problems with Public Resourses. Contributions to Game Theory and Management, 12. Retrieved from https://gametheory.spbu.ru/article/view/12961

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