An angular momentum based graviton detector

Abstract

We show that gravitons with energy $E<\Omega$, where $\Omega$ is the energy gap a localized non-relativistic system, can be detected by finite-time interactions with a detector. Our detector is based on a quadrupole moment interaction between the hydrogen atom and the gravitational field in the linearized approximation. In this model, the external agent responsible for switching the interaction on an off inputs energy into the system, which creates a non-zero excitation probability even when the field is in the vacuum state. However, when the gravitational field is in a one-particle state with angular momentum, we obtain excitations due to the field's particle content. These detector excitations are then associated with the detection of gravitons. We also discuss a possible physical realization of our model where the electromagnetic field plays the role of the external agent.

arXiv commentrevtex 4-1, 7 pages, 2 figures

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• The role of quantum degrees of freedom of relativistic fields in quantum information protocols
• Closed-form expressions for smeared bi-distributions of a massless scalar field: non-perturbative and asymptotic results in relativistic quantum information
• Testing the Wave-Particle Duality of Gravitational Wave Using the Spin-Orbital-Hall Effect of Structured Light
• Duality between amplitude and derivative coupled particle detectors in the limit of large energy gaps
• The stress-energy tensor of an Unruh-DeWitt detector
• Harvesting entanglement from the cylindrical gravitational wave spacetime