Biomolecular condensates, formed through phase separation, are upending our
understanding in much of molecular, cell, and developmental biology. There is an urgent …

Biomolecular condensates are highly versatile membraneless organelles involved in a
plethora of cellular processes. Recent years have witnessed growing evidence of the …

Liquid-liquid phase separation yields spherical droplets that eventually coarsen to one
large, stable droplet governed by the principle of minimal free energy. In chemically fueled …

Liquid-liquid phase separation (LLPS) can drive a multitude of cellular processes by
compartmentalizing biological cells via the formation of dense liquid biomolecular …

Coacervation has emerged as a prevalent mechanism to compartmentalize biomolecules in
living cells. Synthetic coacervates help in understanding the assembly process and mimic …

Membrane wetting by biomolecular condensates recently emerged as a key phenomenon in
cell biology, playing an important role in a diverse range of processes across different …

Coacervates, which are formed by liquid–liquid phase separation, have been extensively
explored as models for synthetic cells and membraneless organelles, so their in-depth …

Phase separation in aqueous solutions of macromolecules underlies the generation of
biomolecular condensates in cells. Condensates are membraneless bodies, representing …

Interfacial effects are well-known to significantly alter chemical reactivity, especially in
confined environments, where the surface to volume ratio increases. Here, we observed an …

A notable feature of complex cellular environments is protein‐rich compartments that are
formed via liquid–liquid phase separation. Recent studies have shown that these …