Stable Matching with Predictions: Robustness and Efficiency under Pruned Preferences
Samuel McCauley, Benjamin Moseley, Helia Niaparast, Shikha Singh

TL;DR
This paper investigates stable matching with truncated preferences based on predictions, demonstrating that the classic deferred-acceptance algorithm remains robust and efficient, reducing preference list lengths and proposals in large markets.
Contribution
It introduces algorithms for stable matching with truncated preferences using predictions, showing robustness and efficiency improvements both theoretically and empirically.
Findings
Predictions enable significant reduction in preference list lengths.
The deferred-acceptance algorithm remains robust under preference truncation.
Empirical results confirm efficiency gains in large matching markets.
Abstract
In this paper, we study the fundamental problem of finding a stable matching in two-sided matching markets. In the classic variant, it is assumed that both sides of the market submit a ranked list of all agents on the other side. However, in large matching markets such as the National Resident Matching Program (NRMP), it is infeasible for hospitals to interview or mutually rank each resident. In this paper, we study the stable matching problem with truncated preference lists. In particular, we assume that, based on historical datasets, each hospital has a predicted rank of its likely match and only ranks residents within a bounded interval around that prediction. We use the algorithms-with-predictions framework and show that the classic deferred-acceptance (DA) algorithm used to compute stable matchings is robust to such truncation. We present two algorithms and theoretically and…
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Taxonomy
TopicsGame Theory and Voting Systems · Auction Theory and Applications · Mobile Crowdsensing and Crowdsourcing
