Efficient and reversible optical-to-spin conversion for solid-state quantum memories
arXiv:2410.14551 · doi:10.1088/2058-9565/adc7d3
Abstract
Long-duration and efficient quantum memories for photons are key components of quantum repeater and network applications. To achieve long duration storage in atomic systems, a short-lived optical coherence can be mapped into a long-lived spin coherence, which is the basis for many quantum memory schemes. In this work, we present modeling and measurements of the back-and-forth, i.e. reversible, optical-to-spin conversion for an atomic frequency comb memory. The AFC memory is implemented in with an applied magnetic field of 231 mT, which allows lifting Zeeman transition degeneracy which otherwise cause time-domain interference in the optical-to-spin conversion. By optimizing the conversion using the developed simulation tool, we achieve a total efficiency of up to 96%, including the spin echo sequence and spin dephasing, for a storage time of 500 s. Our methods and results pave the way for long-duration storage of single photon states in 151Eu3+:Y2SiO5 with high signal-to-noise, at the millisecond timescale.
22 pages, 8 figures
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Cited by in corpus (4)
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- Broadband and long-duration optical memory in Yb:YSO
- Optical pumping simulations and optical Rabi frequency measurements in under magnetic field
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