Determining quantum correlation through Nash equilibria in constant-sum games

Quantum game theory has emerged as a promising candidate to further the understanding of quantum correlations. Motivated by this, it is demonstrated that pure strategy Nash equilibria can be utilized as a mechanism to witness and determine quantum correlation. By combining quantum theory with Bayesian game theory, a constant-sum game is designed in which the players are competing against each other and crucially gain at the other player’s expense. Subsequently, it is found that mixed strategy Nash equilibria are only necessary when considering quantum correlation for the designed game. This reveals that a Bayesian game-theoretic framework yields a sufficient condition for detecting quantum effects.

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Publication Details

Journal
APL Quantum
Published
2025-03-01
DOI
https://doi.org/10.1063/5.0239384
Citations
2
Primary Topic
Quantum Mechanics and Applications
Type
article
Field-Weighted Citation Impact
2.49
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article

Determining quantum correlation through Nash equilibria in constant-sum games

Adam Lowe
2 citations
APL Quantum
Quantum Mechanics and Applications
2.49
article

Determining quantum correlation through Nash equilibria in constant-sum games

Adam Lowe
article en
2 citations

Abstract

Quantum game theory has emerged as a promising candidate to further the understanding of quantum correlations. Motivated by this, it is demonstrated that pure strategy Nash equilibria can be utilized as a mechanism to witness and determine quantum correlation. By combining quantum theory with Bayesian game theory, a constant-sum game is designed in which the players are competing against each other and crucially gain at the other player’s expense. Subsequently, it is found that mixed strategy Nash equilibria are only necessary when considering quantum correlation for the designed game. This reveals that a Bayesian game-theoretic framework yields a sufficient condition for detecting quantum effects.

APL QuantumVol. 2(1)
Aston University (GB)
Openalex Percentile: Top 13%
Quantum Mechanics and Applications
2.49
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