Abstract We describe the principles and applications of dipolar recoupling in solid-state
NMR spectroscopy as a means to access information about molecular structure and transfer …

NMR spectroscopy presents boundless opportunities for understanding the structure,
dynamics, and function for a broad range of scientific applications. Solid-state NMR …

We present a new and highly efficient approach for heteronuclear coherence transfer in
solid-state NMR spectroscopy under high-speed spinning conditions. The so-called …

The time required for data acquisition and subsequent spectral assignment are limiting
factors for determining biomolecular structure and dynamics using solid-state NMR …

Three different techniques (adiabatic passage Hartman-Hahn cross-polarization, optimal
control designed pulses, and EXPORT) are compared for transferring 15N magnetization to …

Spin polarization transfers among aliphatic 13 C nuclei, especially 13 Cα–13 Cβ transfers,
permit correlations of their nuclear magnetic resonance (NMR) frequencies that are …

We present a new method that combines carbonyl-selective labeling with frequency-
selective heteronuclear recoupling to resolve the spectral overlap of magic angle spinning …

The paper describes two-dimensional solid state NMR experiments that use powdered
dephased antiphase coherence (γ preparation) to encode chemical shifts in the indirect …

Aimed at performing dipolar recoupling as part of biological solid-state NMR experiments
without using excessively strong rf irradiation, we present a series of low-power supercycled …

The paper describes a family of novel recoupling pulse sequences, called three pulse
recoupling. These pulse sequences can be employed for both homonuclear and …