Change of quantum correlation for two simultaneously accelerated observers
Yue Li, Yongjie Pan, and Baocheng Zhang

TL;DR
This paper studies how the Unruh effect impacts quantum and classical correlations between two observers under acceleration, revealing that correlations diminish differently depending on whether one or both observers are accelerated.
Contribution
It provides new insights into the behavior of quantum and classical correlations under acceleration and gravitational effects, highlighting how correlations decay with increased acceleration.
Findings
Correlations approach finite values when one observer accelerates.
Correlations decrease to zero when both observers accelerate.
Gravitational fields significantly disrupt quantum and classical correlations.
Abstract
The influence of Unruh effect on the quantum and classical correlation of a quantum entangled state is investigated, when one or two of the observers are accelerated. It is found that the quantum and classical correlation would approach to a finite value with the increase of the acceleration when only one observer is accelerated, but they would decrease to zero quickly when two observers are accelerated. The latter result implies that the gravitational field would break the correlation obviously when the acceleration is caused by the gravitational field. Thus, when the two observers stay in the gravitational field, the quantum or classical correlation would not easy to be preserved for a long time.
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