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This research presents a significant advancement in quantum computing by converting passive quantum memory into an active platform for deterministic photonic processing using frequency-bin qubits. By leveraging macroscopic coherence and time-reversal symmetry, the study enables robust all-optical control essential for scalable multimode quantum networks. This work directly addresses core challenges in quantum information storage and manipulation rather than serving as incidental technology.
Deterministic synthesis and processing of frequency-bin qubits in a macroscopically coherent quantum memory
arXiv:2609.23171v1 Announce Type: new Abstract: Quantum information processing requires efficient storage and manipulation of photonic states.Here, we advance a cavity-assisted quantum memory protocol based on Pre-created Long-lived Macroscopic (PLM) coherence, thereby transforming quantum memory from a passive storage device into a platform for deterministic in-memory photonic processing. It is demonstrated that spin PLM coherence enables all-optical control of quantum memory using robust radio-frequency rotations alone. Here, the spin coherence serves as a distributed coherent quantum bus, which mediates the deterministic synthesis and storage of frequency-bin states through spectrally nonlocal impedance matching. We identify an inherent time-reversal symmetry in the underlying dynamical equations, ensuring unitary evolution of the quantum memory operations. The presented results demonstrate a unified platform for quantum storage and optical signal processing, enabling controlled manipulation of frequency-bin photonic qubits and paving the way for scalable multimode quantum networks based on spectral-encoding architectures.
Abstract:Quantum information processing requires efficient storage and manipulation of photonic this http URL, we advance a cavity-assisted quantum memory protocol based on Pre-created Long-lived Macroscopic (PLM) coherence, thereby transforming quantum memory from a passive storage device into a platform for deterministic in-memory photonic processing. It is demonstrated that spin PLM coherence enables all-optical control of quantum memory using robust radio-frequency rotations alone. Here, the spin coherence serves as a distributed coherent quantum bus, which mediates the deterministic synthesis and storage of frequency-bin states through spectrally nonlocal impedance matching. We identify an inherent time-reversal symmetry in the underlying dynamical equations, ensuring unitary evolution of the quantum memory operations. The presented results demonstrate a unified platform for quantum storage and optical signal processing, enabling controlled manipulation of frequency-bin photonic qubits and paving the way for scalable multimode quantum networks based on spectral-encoding architectures.
Quantum Physics (quant-ph); Applied Physics (physics.app-ph); Optics (physics.optics)
arXiv:2609.23171 [quant-ph]
(or arXiv:2609.23171v1 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2609.23171 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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