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IEEE Conference on Computer Communications (INFOCOM)

Routing in Bufferless Quantum Networks

Hilal Sultan Duranoglu Tunc, Joy Halder, Muhammad Idham Habibie, Bassem Arar, Riccardo Bassoli, Gerhard Paul Fettweis, Frank H. P. Fitzek

Published May 18, 2026• 0 citations
Publisher
DOI
10.1109/infocom59046.2026.11571342

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Spectral lineshape narrowing of atomic vapour emission in a bufferless, wall-coated absorption cell has been analysed using the same formalism developed to describe sub-Doppler linewidths, Dicke narrowing, in a buffered cell. Within this formalism lineshapes are generated using Monte Carlo techniques. Dramatic linewidth reductions in the bufferless cell, compared with the buffered cell, occur because of the high probability that Doppler shifts before and after a particular wall collision will cancel each other. The formalism described allows more physical insight than the classic one-dimensional box model previously invoked to explain spectra narrowing in bufferless, wall-coated cells. Additionally, this formalism reveals a correlation between post-collision velocities and intercollision times in the buffered cell resulting in modifications of the standard Dicke analysis of these cells.
Spectral lineshape narrowing of atomic vapor emission in a bufferless, wall-coated absorption cell has been analyzed using the same formalism developed t3 describe sub-Doppler linewidths. Dicke-narrowing, in a buffered cell. Dramatic linewidth reductions in the bufferless cell, compared to the buffered cell, occur because of the high probability that Doppler shifts before and after a particular wall collision will cancel each other. The formalism described allows more physical insight than the classic onedimensional box model previously invoked to explain spectral narrowing in bufferless, wall coated cells. Additionally, this formalism reveals a correlation between post-collision velocities and intercollision times in the buffered cell resulting in modifications of the standard Dicke analysia of these cells. Finally, the computational power of the technique is demonstrated. The effects of varying cell size on Rb and CS hyperfine lineshapes and the results of the presence of an inhomogeneous magnetic field within the cell are analyzed.
Quantum networks present a potent solution to secure microgrid communication in the quantum era. Efficient quantum network routing protocols play an important role in developing practical and resilient quantum network-based microgrids. In this paper, we make the following contributions: 1) establish lightweight-yet-holistic routing tables for scalable and low-latency quantum routing in microgrids; 2) devise efficient distributed local routing protocols for quantum network-enabled microgrids; and 3) integrate the devised protocols in a real-time QNetGrid testbed and evaluate their performance under different scenarios. Experiments validate the efficacy of the devised methods and provide insights for developing efficient quantum network routing for cyber-resilient microgrids,