Interactions within proteins, with their surrounding, and with other molecules are mediated mostly by hydrogen atoms. In fully protonated, inhomogeneous, or larger proteins, however, aliphatic proton shifts tend to show little dispersion despite fast Magic-Angle Spinning. 3D correlations dispersing aliphatic proton shifts by their better resolved amide N/H shifts can alleviate this problem. Using inverse second-order cross-polarization (iSOCP), we here introduce dedicated and improved means to sensitively link site-specific chemical shift information from aliphatic protons with a backbone amide resolution. Thus, even in cases where protein deuteration is impossible, this approach may enable access to various aspects of protein functions tha...
1H-detection in solid-state NMR of proteins has been traditionally combined with deuteration for bot...
We demonstrate sensitive detection of alpha protons of fully protonated proteins by solid-state NMR ...
When combined with high-frequency (currently 60 kHz) magic-angle spinning (MAS), proton detection bo...
Protein structure determination by proton-detected magic-angle spinning (MAS) NMR has focused on hig...
Assignment of proteins in MAS (magic angle spinning) solid-state NMR relies so far on correlations a...
Hydrogen bonds are essential for protein structure and function, making experimental access to long-...
Proton-detected solid-state NMR was applied to a highly deuterated insoluble, non-crystalline biolog...
Solid-state NMR (ssNMR) is a technique that allows the study of protein structure and dynamics at at...
When applied to biomolecules, solid-state NMR suffers from low sensitivity and resolution. The major...
We describe a new labeling method that allows for full protonation at the backbone Hα position, main...
HNCO/HNCACO type correlation experiments are an alternative for assignment of backbone resonances in...
The assignment of protein backbone and side-chain NMR chemical shifts is the first step towards the ...
Structural investigations are a prerequisite to understand protein function. Intermediate time scale...
Biological magic angle spinning (MAS) solid-state nuclear magnetic resonance spectroscopy has develo...
1H-detection in solid-state NMR of proteins has been traditionally combined with deuteration for bot...
1H-detection in solid-state NMR of proteins has been traditionally combined with deuteration for bot...
We demonstrate sensitive detection of alpha protons of fully protonated proteins by solid-state NMR ...
When combined with high-frequency (currently 60 kHz) magic-angle spinning (MAS), proton detection bo...
Protein structure determination by proton-detected magic-angle spinning (MAS) NMR has focused on hig...
Assignment of proteins in MAS (magic angle spinning) solid-state NMR relies so far on correlations a...
Hydrogen bonds are essential for protein structure and function, making experimental access to long-...
Proton-detected solid-state NMR was applied to a highly deuterated insoluble, non-crystalline biolog...
Solid-state NMR (ssNMR) is a technique that allows the study of protein structure and dynamics at at...
When applied to biomolecules, solid-state NMR suffers from low sensitivity and resolution. The major...
We describe a new labeling method that allows for full protonation at the backbone Hα position, main...
HNCO/HNCACO type correlation experiments are an alternative for assignment of backbone resonances in...
The assignment of protein backbone and side-chain NMR chemical shifts is the first step towards the ...
Structural investigations are a prerequisite to understand protein function. Intermediate time scale...
Biological magic angle spinning (MAS) solid-state nuclear magnetic resonance spectroscopy has develo...
1H-detection in solid-state NMR of proteins has been traditionally combined with deuteration for bot...
1H-detection in solid-state NMR of proteins has been traditionally combined with deuteration for bot...
We demonstrate sensitive detection of alpha protons of fully protonated proteins by solid-state NMR ...
When combined with high-frequency (currently 60 kHz) magic-angle spinning (MAS), proton detection bo...