AI Article Synopsis
- Recent advancements in quantum technologies have led to extensive research on frequency conversion of quantum signals.
- This study focuses on the generation of optic-microwave entanglement through an electro-optomechanical frequency conversion applied to an optical two-mode squeezed vacuum state.
- The findings reveal an upper limit to the entanglement that remains post-conversion, offering a theoretical framework for developing practical quantum illumination systems.
Article Abstract
In recent development of quantum technologies, a frequency conversion of quantum signals has been studied widely. We investigate the optic-microwave entanglement that is generated by applying an electro-optomechanical frequency conversion scheme to one mode in an optical two-mode squeezed vacuum state. We quantify entanglement of the converted two-mode Gaussian state, where surviving entanglement of the state is analyzed with respect to the parameters of the electro-optomechanical system. Furthermore, we show that there exists an upper bound for the entanglement that survives after the conversion of highly entangled optical states. Our study provides a theoretical platform for a practical quantum illumination system.
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| http://dx.doi.org/10.1364/OE.419385 | DOI Listing |
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