Towards detection of molecular parity violation via chiral co-sensing: the $^1$H/$^{31}$P model system
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arXiv
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| Autores principales: | , , , , , , , , , , , , |
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| Formato: | Preprint |
| Publicado: |
2024
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| _version_ | 1866915085224509440 |
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| author | Van Dyke, Erik Eills, James Sheberstov, Kirill Blanchard, John Wagner, Manfred Graf, Robert Wedenig, Andrés Emilio Gaul, Konstantin Berger, Robert Pietschnig, Rudolf Kargin, Denis Barskiy, Danila A. Budker, Dmitry |
| author_facet | Van Dyke, Erik Eills, James Sheberstov, Kirill Blanchard, John Wagner, Manfred Graf, Robert Wedenig, Andrés Emilio Gaul, Konstantin Berger, Robert Pietschnig, Rudolf Kargin, Denis Barskiy, Danila A. Budker, Dmitry |
| contents | Fundamental weak interactions have been shown to violate parity in both nuclear and atomic systems. However, observation of parity violation in a molecular system has proven an elusive target. Nuclear spin dependent contributions of the weak interaction are expected to result in energetic differences between enantiomers manifesting in nuclear magnetic resonance (NMR) spectra as chemical shift differences on the order of $10^{-6}$ Hz to $10^{-3}$ Hz for high-$Z$ nuclei. By employing simultaneous measurements of the diastereomeric splittings for a light and a heavy nucleus in solution-state NMR, residual chemical shift differences persisting in non-chiral environment between enantiomers of chiral compounds smaller than the typical linewidth of high-field NMR may be resolved. Sources of error must be identified and minimized to verify that the observed effect is, in fact, due to parity violation and not systematic effects. This paper presents a detailed analysis of a system incorporating \textsuperscript{31}P and \textsuperscript{1}H NMR to elucidate the systematic effects and to guide experiments with higher-$Z$ nuclei where molecular parity violation may be resolved. |
| format | Preprint |
| id |
arxiv_https___arxiv_org_abs_2412_20997 |
| institution | arXiv |
| publishDate | 2024 |
| record_format | arxiv |
| spellingShingle | Towards detection of molecular parity violation via chiral co-sensing: the $^1$H/$^{31}$P model system Van Dyke, Erik Eills, James Sheberstov, Kirill Blanchard, John Wagner, Manfred Graf, Robert Wedenig, Andrés Emilio Gaul, Konstantin Berger, Robert Pietschnig, Rudolf Kargin, Denis Barskiy, Danila A. Budker, Dmitry Chemical Physics Fundamental weak interactions have been shown to violate parity in both nuclear and atomic systems. However, observation of parity violation in a molecular system has proven an elusive target. Nuclear spin dependent contributions of the weak interaction are expected to result in energetic differences between enantiomers manifesting in nuclear magnetic resonance (NMR) spectra as chemical shift differences on the order of $10^{-6}$ Hz to $10^{-3}$ Hz for high-$Z$ nuclei. By employing simultaneous measurements of the diastereomeric splittings for a light and a heavy nucleus in solution-state NMR, residual chemical shift differences persisting in non-chiral environment between enantiomers of chiral compounds smaller than the typical linewidth of high-field NMR may be resolved. Sources of error must be identified and minimized to verify that the observed effect is, in fact, due to parity violation and not systematic effects. This paper presents a detailed analysis of a system incorporating \textsuperscript{31}P and \textsuperscript{1}H NMR to elucidate the systematic effects and to guide experiments with higher-$Z$ nuclei where molecular parity violation may be resolved. |
| title | Towards detection of molecular parity violation via chiral co-sensing: the $^1$H/$^{31}$P model system |
| topic | Chemical Physics |
| url | https://arxiv.org/abs/2412.20997 |