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This research utilizes polarization-entangled states to surpass the shot-noise limit in distinguishing enantiomeric biomolecules, offering a significant sensitivity boost for drug development and biochemical analysis. By employing quantum-noise-squeezed probes, the study addresses fundamental limitations of classical chiroptical methods without causing photodamage to samples.
Quantum-elevated Chiral Discrimination for Bio-molecules
arXiv:2511.03412v3 Announce Type: replace Abstract: Chiral discrimination of enantiomeric biomolecules is vital in chemistry, biology, and medicine. Conventional methods, relying on circularly polarized light, face weak chiroptical signals and potential photodamage. Despite extensive efforts to improve sensitivity under low-photon exposure, classical chiral probes remain fundamentally bounded by the shot-noise limit due to quantum fluctuations. To beat these limitations, we demonstrate quantum-elevated chiral discrimination using continuous-variable polarization-entangled states as moderate-photon-flux, high-sensitivity, quantum-noise-squeezed chiral probes. We achieve a 5 dB improvement beyond the SNL in distinguishing L- and D-amino acids in liquid phase. This non-destructive, biocompatible protocol enables high-sensitivity chiral analysis, with broad implications for drug development, biochemical research, environmental monitoring, and asymmetric synthesis.
Abstract:Chiral discrimination of enantiomeric biomolecules is vital in chemistry, biology, and medicine. Conventional methods, relying on circularly polarized light, face weak chiroptical signals and potential photodamage. Despite extensive efforts to improve sensitivity under low-photon exposure, classical chiral probes remain fundamentally bounded by the shot-noise limit due to quantum fluctuations. To beat these limitations, we demonstrate quantum-elevated chiral discrimination using continuous-variable polarization-entangled states as moderate-photon-flux, high-sensitivity, quantum-noise-squeezed chiral probes. We achieve a 5 dB improvement beyond the SNL in distinguishing L- and D-amino acids in liquid phase. This non-destructive, biocompatible protocol enables high-sensitivity chiral analysis, with broad implications for drug development, biochemical research, environmental monitoring, and asymmetric synthesis.
arXiv:2511.03412 [quant-ph]
(or arXiv:2511.03412v3 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2511.03412 Focus to learn more arXiv-issued DOI via DataCite
Sci. Adv.12,eaea8201(2026)
https://doi.org/10.1126/sciadv.aea8201 Focus to learn more DOI(s) linking to related resources
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