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Counting steps for re-stabilization in a labor matching market

Published 11 May 2024 in econ.TH and cs.GT | (2405.07084v1)

Abstract: We study a one-to-one labor matching market. If a worker considers resigning from her current job to obtain a better one, how long does it take for this worker to actually get it? We present an algorithm that models this situation as a re-stabilization process involving a vacancy chain. Each step of the algorithm is a link of such a chain. We show that the length of this vacancy chain, which can be interpreted as the time the worker has to wait for her new job, is intimately connected with the lattice structure of the set of stable matchings of the market. Namely, this length can be computed by considering the cardinalities of cycles in preferences derived from the initial and final stable matchings involved.

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References (16)
  1. Bansal, V., A. Agrawal, and V. Malhotra (2007): “Polynomial time algorithm for an optimal stable assignment with multiple partners,” Theoretical Computer Science, 379, 317–328.
  2. Blum, Y., A. Roth, and U. Rothblum (1997): “Vacancy chains and equilibration in senior-level labor markets,” Journal of Economic theory, 76, 362–411.
  3. Bonifacio, A. G., N. Guiñazú, N. Juarez, P. Neme, and J. Oviedo (2022a): “The lattice of worker-quasi-stable matchings,” Games and Economic Behavior, 135, 188–200.
  4. ——— (2024): “The lattice of envy-free many-to-many matchings with contracts,” Theory and Decision, 96, 113–134.
  5. Bonifacio, A. G., N. Juarez, P. Neme, and J. Oviedo (2022b): “Cycles to compute the full set of many-to-many stable matchings,” Mathematical Social Sciences, 117, 20–29.
  6. Cantala, D. (2004): “Restabilizing matching markets at senior level,” Games and Economic Behavior, 48, 1–17.
  7. Cheng, C., E. McDermid, and I. Suzuki (2008): “A unified approach to finding good stable matchings in the hospitals/residents setting,” Theoretical Computer Science, 400, 84–99.
  8. Gale, D. and L. Shapley (1962): “College admissions and the stability of marriage,” The American Mathematical Monthly, 69, 9–15.
  9. Gusfield, D. (1987): “Three fast algorithms for four problems in stable marriage,” SIAM Journal on Computing, 16, 111–128.
  10. Irving, R. and P. Leather (1986): “The complexity of counting stable marriages,” SIAM Journal on Computing, 15, 655–667.
  11. Kamada, Y. and F. Kojima (2023): “Fair matching under constraints: Theory and applications,” Review of Economic Studies, rdad046.
  12. Knuth, D. (1976): “Marriages Stable. Université de Montréal Press, Translated as “Stable Marriage and Its Relation to Other Combinatorial Problems,”,” CRM Proceedings and Lecture Notes, American Mathematical Society.
  13. McVitie, D. and L. Wilson (1970): “Stable marriage assignment for unequal sets,” BIT Numerical Mathematics, 10, 295–309.
  14. Neme, P. and J. Oviedo (2019): “A characterization of strongly stable fractional matchings,” TOP, 1–26.
  15. ——— (2021): “On the many-to-one strongly stable fractional matching set,” Mahtematical Social Science, 110, 1–13.
  16. Wu, Q. and A. Roth (2018): “The lattice of envy-free matchings,” Games and Economic Behavior, 109, 201–211.
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