Biomolecular solid-state NMR spectroscopy at 1200 MHz: the gain in resolution

Progress in NMR in general and in biomolecular applications in particular is driven by increasing magnetic-field strengths leading to improved resolution and sensitivity of the NMR spectra. Recently, persistent superconducting magnets at a magnetic field strength (magnetic induction) of 28.2 T corre...

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Veröffentlicht in:Journal of biomolecular NMR 2021-07, Vol.75 (6-7), p.255-272
Hauptverfasser: Callon, Morgane, Malär, Alexander A., Pfister, Sara, Římal, Václav, Weber, Marco E., Wiegand, Thomas, Zehnder, Johannes, Chávez, Matías, Cadalbert, Riccardo, Deb, Rajdeep, Däpp, Alexander, Fogeron, Marie-Laure, Hunkeler, Andreas, Lecoq, Lauriane, Torosyan, Anahit, Zyla, Dawid, Glockshuber, Rudolf, Jonas, Stefanie, Nassal, Michael, Ernst, Matthias, Böckmann, Anja, Meier, Beat H.
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Sprache:eng
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Zusammenfassung:Progress in NMR in general and in biomolecular applications in particular is driven by increasing magnetic-field strengths leading to improved resolution and sensitivity of the NMR spectra. Recently, persistent superconducting magnets at a magnetic field strength (magnetic induction) of 28.2 T corresponding to 1200 MHz proton resonance frequency became commercially available. We present here a collection of high-field NMR spectra of a variety of proteins, including molecular machines, membrane proteins, viral capsids, fibrils and large molecular assemblies. We show this large panel in order to provide an overview over a range of representative systems under study, rather than a single best performing model system. We discuss both carbon-13 and proton-detected experiments, and show that in 13 C spectra substantially higher numbers of peaks can be resolved compared to 850 MHz while for 1 H spectra the most impressive increase in resolution is observed for aliphatic side-chain resonances.
ISSN:0925-2738
1573-5001
DOI:10.1007/s10858-021-00373-x