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Unruh Effect Detection via Decoherence

Published:Dec 29, 2025 22:28
1 min read
ArXiv

Analysis

This paper explores an indirect method for detecting the Unruh effect, a fundamental prediction of quantum field theory. The Unruh effect, which posits that an accelerating observer perceives a vacuum as a thermal bath, is notoriously difficult to verify directly. This work proposes using decoherence, the loss of quantum coherence, as a measurable signature of the effect. The extension of the detector model to the electromagnetic field and the potential for observing the effect at lower accelerations are significant contributions, potentially making experimental verification more feasible.
Reference

The paper demonstrates that the decoherence decay rates differ between inertial and accelerated frames and that the characteristic exponential decay associated with the Unruh effect can be observed at lower accelerations.

Affine Symmetry and the Unruh Effect

Published:Dec 27, 2025 16:58
1 min read
ArXiv

Analysis

This paper provides a group-theoretic foundation for understanding the Unruh effect, a phenomenon where accelerated observers perceive a thermal bath of particles even in a vacuum. It leverages the affine group's representation to connect inertial and accelerated observers' perspectives, offering a novel perspective on vacuum thermal effects and suggesting potential applications in other quantum systems.
Reference

We show that simple manipulations connecting these two representations involving the Mellin transform can be used to derive the thermal spectrum of Rindler particles observed by an accelerated observer.