AbstractBy using multiple molecular dynamics trajectories of photolyzed carbon monoxide (CO) within crystallized myoglobin, a quantitative description of CO diffusion and corresponding kinetics was obtained. Molecular dynamics results allowed us to construct a detailed kinetic model of the migration process, shedding light on the kinetic mechanism and relevant steps of CO migration and remarkably-well reproducing the available experimental data as provided by time-resolved Laue x-ray diffraction
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...
By using multiple (independent) molecular dynamics (MD) trajectories (about 500 ns in total) of phot...
By using multiple molecular dynamics trajectories of photolyzed carbon monoxide (CO) within crystall...
By using multiple molecular dynamics trajectories of photolyzed carbon monoxide (CO) within crystall...
By using multiple molecular dynamics trajectories of photolyzed carbon monoxide (CO) within crystall...
By using multiple molecular dynamics trajectories of photolyzed carbon monoxide (CO) within crystall...
By using multiple molecular dynamics (MD) trajectories, a quantitative description of carbon monoxid...
By using multiple molecular dynamics (MD) trajectories, a quantitative description of carbon monoxid...
By using multiple molecular dynamics (MD) trajectories, a quantitative description of carbon monoxid...
By using multiple molecular dynamics (MD) trajectories, a quantitative description of carbon monoxid...
AbstractBy using multiple molecular dynamics trajectories of photolyzed carbon monoxide (CO) within ...
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...
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...
By using multiple (independent) molecular dynamics (MD) trajectories (about 500 ns in total) of phot...
By using multiple molecular dynamics trajectories of photolyzed carbon monoxide (CO) within crystall...
By using multiple molecular dynamics trajectories of photolyzed carbon monoxide (CO) within crystall...
By using multiple molecular dynamics trajectories of photolyzed carbon monoxide (CO) within crystall...
By using multiple molecular dynamics trajectories of photolyzed carbon monoxide (CO) within crystall...
By using multiple molecular dynamics (MD) trajectories, a quantitative description of carbon monoxid...
By using multiple molecular dynamics (MD) trajectories, a quantitative description of carbon monoxid...
By using multiple molecular dynamics (MD) trajectories, a quantitative description of carbon monoxid...
By using multiple molecular dynamics (MD) trajectories, a quantitative description of carbon monoxid...
AbstractBy using multiple molecular dynamics trajectories of photolyzed carbon monoxide (CO) within ...
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...
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...
By using multiple (independent) molecular dynamics (MD) trajectories (about 500 ns in total) of phot...