Self testing quantum apparatus
arXiv:quant-ph/0307205
Abstract
We study a configuration of devices that includes (1) a source of some unknown bipartite quantum state that is claimed to be the Bell state and (2) two commuting but otherwise unknown measurement apparatus, one on each side, that are each claimed to execute an orthogonal measurement at an angle that is chosen by the user. We show that, if the nine distinct probability distributions that are generated by the self checking configuration, one for each pair of angles, are consistent with the specifications, the source and the two measurement apparatus are guaranteed to be identical modulo some isomorphism to the claimed specifications. We discuss the connection with quantum cryptography.
Added 3 references; 10 pages (Revtex); The proof was simplified
Cited by in corpus (13)
- Non-interactive classical verification of quantum computation
- Device Independent Quantum Key Distribution with realistic single-photon source implementations
- Device-independent verification of Einstein-Podolsky-Rosen steering
- Parallel self-testing of (tilted) EPR pairs via copies of (tilted) CHSH
- Tilted Hardy paradoxes for device-independent randomness extraction
- Playing nonlocal games with phases of quantum matter
- An Operational Environment for Quantum Self-Testing
- Global Completability with Applications to Self-Consistent Quantum Tomography
- Constant-sized self-tests for maximally entangled states and single projective measurements
- Quantum Bell inequalities from Information Causality -- tight for Macroscopic Locality
- Quantum bounds for compiled XOR games and -outcome CHSH games
- (Almost-)Quantum Bell Inequalities and Device-Independent Applications
- Coarse-grained self-testing