Biological phase separation: cell biology meets biophysics
Biophysical reviews, 2020•Springer
Progress in development of biophysical analytic approaches has recently crossed paths with
macromolecule condensates in cells. These cell condensates, typically termed liquid-like
droplets, are formed by liquid-liquid phase separation (LLPS). More and more cell biologists
now recognize that many of the membrane-less organelles observed in cells are formed by
LLPS caused by interactions between proteins and nucleic acids. However, the detailed
biophysical processes within the cell that lead to these assemblies remain largely …
macromolecule condensates in cells. These cell condensates, typically termed liquid-like
droplets, are formed by liquid-liquid phase separation (LLPS). More and more cell biologists
now recognize that many of the membrane-less organelles observed in cells are formed by
LLPS caused by interactions between proteins and nucleic acids. However, the detailed
biophysical processes within the cell that lead to these assemblies remain largely …
Abstract
Progress in development of biophysical analytic approaches has recently crossed paths with macromolecule condensates in cells. These cell condensates, typically termed liquid-like droplets, are formed by liquid-liquid phase separation (LLPS). More and more cell biologists now recognize that many of the membrane-less organelles observed in cells are formed by LLPS caused by interactions between proteins and nucleic acids. However, the detailed biophysical processes within the cell that lead to these assemblies remain largely unexplored. In this review, we evaluate recent discoveries related to biological phase separation including stress granule formation, chromatin regulation, and processes in the origin and evolution of life. We also discuss the potential issues and technical advancements required to properly study biological phase separation.
Springer
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