Biomolecular condensation is a key mechanism for organizing cellular processes in a
spatiotemporal manner. The phase-transition nature of this process defines a density …

Biomolecular condensates play important roles in a wide array of fundamental biological
processes, such as cellular compartmentalization, cellular regulation, and other biochemical …

Material properties of phase-separated biomolecular condensates, enriched with disordered
proteins, dictate many cellular functions. Contrary to the progress made in understanding the …

Biomolecular condensates form via processes that combine phase separation and
reversible associations of multivalent macromolecules. Condensates can be two-or …

RNAs and RNA-binding proteins can undergo spontaneous or active condensation into
phase-separated liquid-like droplets. These condensates are cellular hubs for various …

Biomolecular condensates are viscoelastic materials defined by time-dependent, sequence-
specific complex shear moduli. Here, we show that viscoelastic moduli can be computed …

Cells use membraneless compartments to organize their interiors, and recent research has
begun to uncover the molecular principles underlying their assembly. Here, we explore how …

Biomolecular condensates are dynamic intracellular entities defined by their sequence-and
composition-encoded material properties. During aging, these properties can change …

Recombinant silk proteins provide a route toward sustainable and biocompatible materials.
For making such materials, the assembly process from dilute protein into a functional …

Stress granules form via co-condensation of RNA binding proteins with prion-like low
complexity domains (PLCDs) and RNA molecules released by stress-induced polysomal …