A physical approach to Tsirelson's problem
arXiv:1105.3373 · doi:10.1007/s10701-012-9641-0
Abstract
Tsirelson's problem deals with how to model separate measurements in quantum mechanics. In addition to its theoretical importance, the resolution of Tsirelson's problem could have great consequences for device independent quantum key distribution and certified randomness. Unfortunately, understanding present literature on the subject requires a heavy mathematical background. In this paper, we introduce quansality, a new theoretical concept that allows to reinterpret Tsirelson's problem from a foundational point of view. Using quansality as a guide, we recover all known results on Tsirelson's problem in a clear and intuitive way.
11 pages, 2 figures
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Cited by in corpus (14)
- Physical characterization of quantum devices from nonlocal correlations
- Security of device-independent quantum key distribution protocols: a review
- Tsirelson's problem and an embedding theorem for groups arising from non-local games
- Identifying Nonconvexity in the Sets of Limited-Dimension Quantum Correlations
- The Smooth Entropy Formalism for von Neumann Algebras
- An invertible map between Bell non-local and contextuality scenarios
- Quantum Side Information: Uncertainty Relations, Extractors, Channel Simulations
- Quantum Steering and Space-Like Separation
- Secure and robust randomness with sequential quantum measurements
- A bound on the quantum value of all compiled nonlocal games
- Taming identical particles for discerning the genuine non-locality
- Tsirelson's problem and purely atomic von Neumann algebras
- Genuine multipartite entanglement is not necessary for standard device-independent conference key agreement
- Maximally nonlocal subspaces