Biomolecular condensates constitute a newly recognized form of spatial organization in
living cells. Although many condensates are believed to form as a result of phase …

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

Prion-like low-complexity domains (PLCDs) are involved in the formation and regulation of
distinct biomolecular condensates that form via phase separation coupled to percolation …

Cells harbour numerous mesoscale membraneless compartments that house specific
biochemical processes and perform distinct cellular functions. These protein-and RNA-rich …

Our current understanding of biomolecular condensate formation is largely based on
observing the final near-equilibrium condensate state. Despite expectations from classical …

Abstract The heterochromatin protein 1 (HP1) family is a crucial component of
heterochromatin with diverse functions in gene regulation, cell cycle control, and cell …

Multiphasic architectures are found ubiquitously in biomolecular condensates and are
thought to have important implications for the organization of multiple chemical reactions …

Cells harbor numerous mesoscale membraneless compartments that house specific
biochemical processes and perform distinct cellular functions. These protein and RNA-rich …

We introduce a method for solving the “inverse” phase equilibria problem: How should the
interactions among a collection of molecular species be designed in order to achieve a …

Prion-like low-complexity domains (PLCDs) are involved in the formation and regulation of
distinct biomolecular condensates that form via coupled associative and segregative phase …