Breathtaking advances in DNA nanotechnology have established DNA as a promising
biomaterial for the fabrication of programmable higher‐order nano/microstructures. In the …

Empty liquids represent a wide class of materials whose constituents arrange in a random
network through reversible bonds. Many key insights on the physical properties of empty …

DNA has the potential to achieve a controllable macromolecular structure, such as
hydrogels or droplets formed through liquid-liquid phase separation (LLPS), as the design of …

Artificial biomolecular condensates are emerging as a versatile approach to organize
molecular targets and reactions without the need for lipid membranes. Here we ask whether …

Cell-sized liposomes and droplets coated with lipid layers have been used as platforms for
understanding live cells, constructing artificial cells, and implementing functional biomedical …

DNA has traditionally been used for the programmable design of nanostructures by
exploiting its sequence-defined supramolecular recognition. However, control on larger …

We propose a coarse-grained model to investigate stress relaxation in star-polymer
networks induced by dynamic bond-exchange processes. We show how the swapping …

DNA hydrogels are self-assembled biomaterials that rely on Watson–Crick base pairing to
form large-scale programmable three-dimensional networks of nanostructured DNA …

DNA is a perfect polymeric molecule for interfacing biology with material science to construct
hydrogels that represent fascinating properties for a wide variety of biomedical applications …

Phase separation of biomolecules plays key roles in physiological compartmentalization as
well as pathological aggregation. A deeper understanding of biomolecular phase separation …