We present CHARMM-compatible force field parameters for a series of fluorescent dyes from the Alexa, Atto, and Cy families, commonly used in Förster resonance energy transfer (FRET) experiments. These dyes are routinely used in experiments to resolve the dynamics of proteins and nucleic acids at the nanoscale. However, little is known about the accuracy of the theoretical approximations used in determining the dynamics from the spectroscopic data. Molecular dynamics simulations can provide valuable insights into these dynamics at an atomistic level, but this requires accurate parameters for the dyes. The complex structure of the dyes and the importance of this in determining their spectroscopic properties mean that parameters generated by a...
Single molecule fluorescence resonance energy transfer (smFRET) experiments probe molecular distance...
Forster resonance energy transfer (FRET) is a photophysical process in which an electronically excit...
AbstractFörster resonance energy transfer (FRET) efficiency distributions in single-molecule experim...
Recent advances in single molecule fluorescence experiments and theory allow a direct comparison and...
AbstractIn Förster resonance energy transfer (FRET) experiments, extracting accurate structural info...
We are developing a method for studying the structural dynamics of biomolecules, which couples fluor...
ABSTRACT: Recent advances in single molecule fluores-cence experiments and theory allow a direct com...
Molecular simulation is a valuable and complementary tool that may assist with the interpretation of...
AbstractMolecular simulation is a valuable and complementary tool that may assist with the interpret...
Recent advances in single molecule fluorescence experiments and theory allow a direct comparison and...
AbstractThe orientation factor κ2, one of the key parameters defining Förster resonance energy trans...
Fully understanding biomolecular function requires detailed insight into the systems’ structural dyn...
Fluorescent proteins (FPs) are important to many studies of protein function, and we plan to examine...
We are developing a method for studying the structural dynamics of biomolecules which couples fluore...
Fluorescent proteins (FPs) are important to many studies of protein function, and we plan to examine...
Single molecule fluorescence resonance energy transfer (smFRET) experiments probe molecular distance...
Forster resonance energy transfer (FRET) is a photophysical process in which an electronically excit...
AbstractFörster resonance energy transfer (FRET) efficiency distributions in single-molecule experim...
Recent advances in single molecule fluorescence experiments and theory allow a direct comparison and...
AbstractIn Förster resonance energy transfer (FRET) experiments, extracting accurate structural info...
We are developing a method for studying the structural dynamics of biomolecules, which couples fluor...
ABSTRACT: Recent advances in single molecule fluores-cence experiments and theory allow a direct com...
Molecular simulation is a valuable and complementary tool that may assist with the interpretation of...
AbstractMolecular simulation is a valuable and complementary tool that may assist with the interpret...
Recent advances in single molecule fluorescence experiments and theory allow a direct comparison and...
AbstractThe orientation factor κ2, one of the key parameters defining Förster resonance energy trans...
Fully understanding biomolecular function requires detailed insight into the systems’ structural dyn...
Fluorescent proteins (FPs) are important to many studies of protein function, and we plan to examine...
We are developing a method for studying the structural dynamics of biomolecules which couples fluore...
Fluorescent proteins (FPs) are important to many studies of protein function, and we plan to examine...
Single molecule fluorescence resonance energy transfer (smFRET) experiments probe molecular distance...
Forster resonance energy transfer (FRET) is a photophysical process in which an electronically excit...
AbstractFörster resonance energy transfer (FRET) efficiency distributions in single-molecule experim...