Before revision:  Our plasmon ruler based method will enable to access the full complexity of correlated local and global conformational dynamics on the level of individual proteins and therefore extend and complement the current "structure / function" paradigm with a novel "structure / timescale / function" description. Access to the dynamics of a single protein over more than 6 orders of magnitude further allows us to address important questions like conformational heterogeneity among proteins, ergodic behavior, and nonMarkovian dynamics, ultimately extending the often static view of biomolecules with a more dynamic picture .
After revision:  Our plasmon ruler based method will enable to access the full complexity of correlated local and global conformational dynamics on the level of individual proteins and therefore extend and complement the current "structure / 4 orders of magnitude further allows us to address important questions like conformational heterogeneity among proteins, ergodic behavior, and nonMarkovian dynamics, ultimately extending the often static view of biomolecules with a more dynamic picture .