Influence of detector motion in Bell inequalities with entangled fermions

Abstract

We investigate how relativity influences the spin correlation of entangled fermions measured by moving detectors. In particular, we show that the Clauser-Horne-Shimony-Holt Bell inequality is not violated by quantum mechanics when the left and right spin detectors move fast enough.

4 pages and 5 figures

References in corpus (1)

• Lorentz-invariant Bell's inequality

Cited by in corpus (19)

• Sudden death of entanglement and teleportation fidelity loss via the Unruh effect
• Sudden change in quantum and classical correlations and the Unruh effect
• Physical interpretation of the Wigner rotations and its implications for relativistic quantum information
• Spin quantum correlations of relativistic particles
• Relativistic Bell Test within Quantum Reference Frames
• Spin operator in the Dirac theory
• WKB analysis of relativistic Stern-Gerlach measurements
• A new view on spin reduced density matrix for relativistic particles
• Influence of detector motion in entanglement measurements with photons
• Wigner rotations and an apparent paradox in relativistic quantum information
• Relativistic Einstein-Podolsky-Rosen correlations and localization
• Relativistic spin operator must be intrinsic
• Sending classical information through relativistic quantum channels
• Observer dependence of entanglement in "nonrelativistic" quantum mechanics
• Searching for a physical description relative to a quantum system
• Localization POVMs and intrinsic temporal uncertainty
• Relativistic quantum information theory and quantum reference frames
• Observer invariance of the collapse postulate of quantum mechanics
• Precision in estimating Unruh temperature