Solid-state NMR with magic-angle spinning (MAS) is an important method in structural
biology. While NMR can provide invaluable information about local geometry on an atomic …

The field of dynamic nuclear polarization has undergone tremendous developments and
diversification since its inception more than 6 decades ago. In this review we provide an in …

Solid-state NMR spectroscopy (ssNMR) with magic-angle spinning (MAS) enables the
investigation of biological systems within their native context, such as lipid membranes, viral …

Dynamic nuclear polarization coupled to solid-state NMR spectroscopy (DNP/ssNMR) is
emerging as a very powerful technique to overcome the limitations resulting from the …

Current interest in amyloid fibrils stems from their involvement in neurodegenerative and
other diseases and from their role as an alternative structural state for many peptides and …

It is shown that surface NMR spectra can be greatly enhanced using dynamic nuclear
polarization. Polarization is transferred from the protons of the solvent to the rare nuclei …

One of the fundamental challenges of physical biology is to understand the relationship
between protein dynamics and function. At physiological temperatures, functional motions …

The alarming rise of antimicrobial resistance requires antibiotics with unexploited
mechanisms. Ideal templates could be antibiotics that target the peptidoglycan precursor …

Magic angle spinning (MAS) nuclear magnetic resonance (NMR) has evolved significantly
over the past three decades and established itself as a vital tool for the structural analysis of …

Dynamic nuclear polarization (DNP) permits a∼ 102− 103 enhancement of the nuclear spin
polarization and therefore increases sensitivity in nuclear magnetic resonance (NMR) …