SummaryInferring antibiotic mechanisms on translation through static structures has been challenging, as biological systems are highly dynamic. Dynamic single-molecule methods are also limited to few simultaneously measurable parameters. We have circumvented these limitations with a multifaceted approach to investigate three structurally distinct aminoglycosides that bind to the aminoacyl-transfer RNA site (A site) in the prokaryotic 30S ribosomal subunit: apramycin, paromomycin, and gentamicin. Using several single-molecule fluorescence measurements combined with structural and biochemical techniques, we observed distinct changes to translational dynamics for each aminoglycoside. While all three drugs effectively inhibit translation elonga...
International audienceTransfer messenger RNA (tmRNA) directs the modification of proteins of which t...
International audienceTransfer messenger RNA (tmRNA) directs the modification of proteins of which t...
Thesis (Ph.D.)--University of Rochester. School of Medicine & Dentistry. Dept. of Biochemistry and B...
Inferring antibiotic mechanisms on translation through static structures has been challenging, as bi...
Aminoglycosides are chemically diverse, broad-spectrum antibiotics that target functional centers wi...
The spread of antibiotic resistance is turning many of the currently used antibiotics less effective...
The translational apparatus of the bacterial cell remains one of the principal targets of antibiotic...
Many antibiotics that bind to the ribosome inhibit translation by blocking the movement of tRNAs and...
SummaryThe traditional view of macrolide antibiotics as plugs inside the ribosomal nascent peptide e...
AbstractAminoglycoside antibiotics target the decoding aminoacyl site (A site) on the 16S ribosomal ...
AbstractBackground: Aminoglycoside antibiotics interfere with translation in both gram-positive and ...
Dynamic remodelling of intersubunit bridge B2, a conserved RNA domain of the bacterial ribosome conn...
SummaryAccumulating evidence suggests that, during translation, nascent chains can form specific int...
Abstract Aminoglycoside antibiotics are protein synthesis inhibitors applied to treat infections cau...
Antibiotics that interfere with translation, when combined, interact in diverse and difficult-to-pre...
International audienceTransfer messenger RNA (tmRNA) directs the modification of proteins of which t...
International audienceTransfer messenger RNA (tmRNA) directs the modification of proteins of which t...
Thesis (Ph.D.)--University of Rochester. School of Medicine & Dentistry. Dept. of Biochemistry and B...
Inferring antibiotic mechanisms on translation through static structures has been challenging, as bi...
Aminoglycosides are chemically diverse, broad-spectrum antibiotics that target functional centers wi...
The spread of antibiotic resistance is turning many of the currently used antibiotics less effective...
The translational apparatus of the bacterial cell remains one of the principal targets of antibiotic...
Many antibiotics that bind to the ribosome inhibit translation by blocking the movement of tRNAs and...
SummaryThe traditional view of macrolide antibiotics as plugs inside the ribosomal nascent peptide e...
AbstractAminoglycoside antibiotics target the decoding aminoacyl site (A site) on the 16S ribosomal ...
AbstractBackground: Aminoglycoside antibiotics interfere with translation in both gram-positive and ...
Dynamic remodelling of intersubunit bridge B2, a conserved RNA domain of the bacterial ribosome conn...
SummaryAccumulating evidence suggests that, during translation, nascent chains can form specific int...
Abstract Aminoglycoside antibiotics are protein synthesis inhibitors applied to treat infections cau...
Antibiotics that interfere with translation, when combined, interact in diverse and difficult-to-pre...
International audienceTransfer messenger RNA (tmRNA) directs the modification of proteins of which t...
International audienceTransfer messenger RNA (tmRNA) directs the modification of proteins of which t...
Thesis (Ph.D.)--University of Rochester. School of Medicine & Dentistry. Dept. of Biochemistry and B...