Protein–nucleic acid interactions play important roles not only in energy‐providing reactions, such as ATP hydrolysis, but also in reading, extending, packaging, or repairing genomes. Although they can often be analyzed in detail with X‐ray crystallography, complementary methods are needed to visualize them in complexes, which are not crystalline. Here, we show how solid‐state NMR spectroscopy can detect and classify protein–nucleic interactions through site‐specific 1H‐ and 31P‐detected spectroscopic methods. The sensitivity of 1H chemical‐shift values on noncovalent interactions involved in these molecular recognition processes is exploited allowing us to probe directly the chemical bonding state, an information, which is not directly acc...
Solution-state NMR has become an accepted method for studying the structure of small proteins in sol...
X-ray crystallography provides excellent structural data on protein–DNA interfaces, but crystallogra...
Structural biology plays a key role in understanding how networks of protein interactions with their...
The recognition of specific DNA sequences by proteins and the coupling to signaling events are funda...
Protein-nucleic acid interactions are essential in a variety of biological events ranging from the r...
International audienceDnaB helicases are bacterial, ATP-driven enzymes that unwind double-stranded D...
The ATP hydrolysis transition state of motor proteins is a weakly populated protein state that can b...
Signal propagation in biological systems occurs through a series of inter- and intramolecular events...
Nuclear magnetic resonance is a robust tool in a broad range of scientific area from biochemistry, m...
DnaB helicases are motor proteins that couple ATP-hydrolysis to the loading of the protein onto DNA ...
NMR is one of the major techniques for investigating the structure, dynamics and interactions betwee...
Despite their roles in controlling many cellular processes, weak and transient interactions between ...
Essential biological processes such as cell motion, signaling,protein synthesis, and pathogen-host i...
International audienceWe here investigate the interactions between the DnaB helicase and the C-termi...
Paramagnetic metal ions can be inserted into ATP-fueled motor proteins by exchanging the diamagnetic...
Solution-state NMR has become an accepted method for studying the structure of small proteins in sol...
X-ray crystallography provides excellent structural data on protein–DNA interfaces, but crystallogra...
Structural biology plays a key role in understanding how networks of protein interactions with their...
The recognition of specific DNA sequences by proteins and the coupling to signaling events are funda...
Protein-nucleic acid interactions are essential in a variety of biological events ranging from the r...
International audienceDnaB helicases are bacterial, ATP-driven enzymes that unwind double-stranded D...
The ATP hydrolysis transition state of motor proteins is a weakly populated protein state that can b...
Signal propagation in biological systems occurs through a series of inter- and intramolecular events...
Nuclear magnetic resonance is a robust tool in a broad range of scientific area from biochemistry, m...
DnaB helicases are motor proteins that couple ATP-hydrolysis to the loading of the protein onto DNA ...
NMR is one of the major techniques for investigating the structure, dynamics and interactions betwee...
Despite their roles in controlling many cellular processes, weak and transient interactions between ...
Essential biological processes such as cell motion, signaling,protein synthesis, and pathogen-host i...
International audienceWe here investigate the interactions between the DnaB helicase and the C-termi...
Paramagnetic metal ions can be inserted into ATP-fueled motor proteins by exchanging the diamagnetic...
Solution-state NMR has become an accepted method for studying the structure of small proteins in sol...
X-ray crystallography provides excellent structural data on protein–DNA interfaces, but crystallogra...
Structural biology plays a key role in understanding how networks of protein interactions with their...