The relatively small size of myoglobin makes it suitable for the investigation of the ligand escape process in respiratory proteins and, in general, an ideal model system for the study of the more general structure-function paradigm. In this work, we use Molecular Dynamics simulations combined with an accelerated algorithm, the metadynamics, to probe the escape of CO from myoglobin. Our approach permits to quantitatively describe the escape process via the reconstruction of the associated free energy surface. Additionally, hints on the involvement of a larger numbers of residues than hitherto assumed in the gating process are extracted from our data
We report the results of an extended molecular dynamics simulation on the migration of photodissocia...
State-of-the-art computational methodologies are used to investigate the energetics and dynamics of ...
AbstractWe report the results of an extended molecular dynamics simulation on the migration of photo...
The relatively small size of myoglobin makes it suitable for the investigation of the ligand escape ...
Molecular dynamics simulations of the events after the photodissociation of CO in the myoglobin muta...
The pathways of diffusion of a CO molecule inside a myoglobin protein and toward the solvent are inv...
The pathways of diffusion of a CO molecule inside a myoglobin protein and toward the solvent are inv...
The pathways of diffusion of a CO molecule inside a myoglobin protein and toward the solvent are in...
By using multiple molecular dynamics (MD) trajectories, a quantitative description of carbon monoxid...
By using multiple (independent) molecular dynamics (MD) trajectories (about 500 ns in total) of phot...
By using multiple (independent) molecular dynamics (MD) trajectories (about 500 ns in total) of phot...
Molecular dynamics simulation is used to study the photodissociation of the ligand carbon monoxide f...
We report the results of an extended molecular dynamics simulation on the migration of photodissocia...
In the family of respiratory proteins, hemoglobins and myoglobins have been the first to be crystall...
Myoglobin has been studied in considerable detail using different experimental and computational tec...
We report the results of an extended molecular dynamics simulation on the migration of photodissocia...
State-of-the-art computational methodologies are used to investigate the energetics and dynamics of ...
AbstractWe report the results of an extended molecular dynamics simulation on the migration of photo...
The relatively small size of myoglobin makes it suitable for the investigation of the ligand escape ...
Molecular dynamics simulations of the events after the photodissociation of CO in the myoglobin muta...
The pathways of diffusion of a CO molecule inside a myoglobin protein and toward the solvent are inv...
The pathways of diffusion of a CO molecule inside a myoglobin protein and toward the solvent are inv...
The pathways of diffusion of a CO molecule inside a myoglobin protein and toward the solvent are in...
By using multiple molecular dynamics (MD) trajectories, a quantitative description of carbon monoxid...
By using multiple (independent) molecular dynamics (MD) trajectories (about 500 ns in total) of phot...
By using multiple (independent) molecular dynamics (MD) trajectories (about 500 ns in total) of phot...
Molecular dynamics simulation is used to study the photodissociation of the ligand carbon monoxide f...
We report the results of an extended molecular dynamics simulation on the migration of photodissocia...
In the family of respiratory proteins, hemoglobins and myoglobins have been the first to be crystall...
Myoglobin has been studied in considerable detail using different experimental and computational tec...
We report the results of an extended molecular dynamics simulation on the migration of photodissocia...
State-of-the-art computational methodologies are used to investigate the energetics and dynamics of ...
AbstractWe report the results of an extended molecular dynamics simulation on the migration of photo...