Complex coacervation is an associative, liquid–liquid phase separation that can occur in
solutions of oppositely-charged macromolecular species, such as proteins, polymers, and …

Supramolecular polymer networks are materials crosslinked by reversible supramolecular
interactions, such as hydrogen bonding or electrostatic interactions. Supramolecular …

Polyelectrolyte complexes are omnipresent both in nature and in the technological world,
including nucleotide condensates, biological marine adhesives, food stabilizers …

Biomacromolecules rely on the precise placement of monomers to encode information for
structure, function, and physiology. Efforts to emulate this complexity via the synthetic control …

Polyelectrolyte complex coacervates of homologous (co) polyelectrolytes with a near-ideally
random distribution of a charged and neutral ethylene oxide comonomer were synthesized …

There has been increasing interest in complex coacervates for deriving and transporting
biomaterials. Complex coacervates are a dense, polyelectrolyte‐rich liquid that results from …

Oppositely charged polymers can undergo the process of complex coacervation, which
refers to a liquid–liquid phase separation driven by electrostatic attraction. These materials …

Polyelectrolyte complexes present new opportunities for self-assembled soft matter. Factors
determining whether the phase of the complex is solid or liquid remain unclear. Ionic …

Complex coacervation is an electrostatically-driven phase separation phenomenon that is
utilized in a wide range of everyday applications and is of great interest for the creation of …

Protein encapsulation is a growing area of interest, particularly in the fields of food science
and medicine. The sequestration of protein cargoes is achieved using a variety of methods …