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This research investigates quantum coherence and entanglement within neutrino oscillation frameworks, treating flavor modes as qubits to explore their potential for fundamental quantum information tasks. By extending standard coherence measures to include robustness of coherence and geometric metrics in both two- and three-flavor systems, the study provides a rigorous methodology for analyzing mode-entangled neutrinos beyond classical distinctions. While rooted in high-energy physics phenomenology, the core contribution lies in advancing theoretical understanding of quantum correlations essential for future computation and communication protocols involving weakly interacting particles.
Coherent dynamics of flavor mode entangled neutrinos
arXiv:2501.06311v2 Announce Type: replace-cross Abstract: As the lynchpin of all quantum correlations, quantum coherence is fundamental for distinguishing quantum systems from classical ones and is essential for realizing quantum advantages in areas such as computation, communication, and metrology. In this study, we investigate the relationship between quantum coherence and neutrino oscillations within the two and three flavor-mode qubit frameworks. Our analysis extends beyond the commonly used $l_1$-norm and relative entropy of coherence to include all relevant measures of coherence such as robustness of coherence, coherence concurrence, trace-norm distance measure of coherence, coherence of formation, Schatten-$p$-norm-based functionals, geometric coherence and logarithmic coherence rank, each offering unique insights into the quantum correlations in these systems. Notably, while the $l_1$-norm and relative entropy-based measures apply to general quantum states, the other measures are particularly relevant for entangled systems, highlighting the critical role of entanglement in neutrino oscillations. We present a detailed methodology for calculating coherence measures in both two-flavor and three-flavor mixing scenarios, contributing to a deeper understanding of how quantum coherence manifests and evolves in mode-entangled neutrino systems. Our findings emphasize the potential of these systems as robust candidates for quantum information tasks, facilitated by the weak interaction nature of neutrinos.
Abstract:As the lynchpin of all quantum correlations, quantum coherence is fundamental for distinguishing quantum systems from classical ones and is essential for realizing quantum advantages in areas such as computation, communication, and metrology. In this study, we investigate the relationship between quantum coherence and neutrino oscillations within the two and three flavor-mode qubit frameworks. Our analysis extends beyond the commonly used $l_1$-norm and relative entropy of coherence to include all relevant measures of coherence such as robustness of coherence, coherence concurrence, trace-norm distance measure of coherence, coherence of formation, Schatten-$p$-norm-based functionals, geometric coherence and logarithmic coherence rank, each offering unique insights into the quantum correlations in these systems. Notably, while the $l_1$-norm and relative entropy-based measures apply to general quantum states, the other measures are particularly relevant for entangled systems, highlighting the critical role of entanglement in neutrino oscillations. We present a detailed methodology for calculating coherence measures in both two-flavor and three-flavor mixing scenarios, contributing to a deeper understanding of how quantum coherence manifests and evolves in mode-entangled neutrino systems. Our findings emphasize the potential of these systems as robust candidates for quantum information tasks, facilitated by the weak interaction nature of neutrinos.
20 pages, 4 figures; matches the accepted version in Nucl. Phys. B
arXiv:2501.06311 [hep-ph]
(or arXiv:2501.06311v2 [hep-ph] for this version)
https://doi.org/10.48550/arXiv.2501.06311 Focus to learn more arXiv-issued DOI via DataCite
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Full text under the publisher's open licence · 295 words
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