Colloidal crystal engineering with DNA has led to significant advances in bottom‐up
materials synthesis and a new way of thinking about fundamental concepts in chemistry …

The scalable synthetic route to colloidal atoms has significantly advanced over the past two
decades. Recently, colloidal clusters with DNA‐coated cores called “patchy colloidal …

Self-assembling colloidal particles in the cubic diamond crystal structure could potentially be
used to make materials with a photonic bandgap,–. Such materials are beneficial because …

Advances in nanoscale self-assembly have enabled the formation of complex nanoscale
architectures. However, the development of self-assembly strategies toward bottom-up …

Nanoparticles have long been recognized for their unique properties, leading to exciting
potential applications across optics, electronics, magnetism, and catalysis. These specific …

The self‐assembly of triblock Janus particles is simulated from a fluid to 3D open lattices:
pyrochlore, perovskite, and diamond. The coarse‐grained model explicitly takes into …

Colloidal self-assembly is a promising bottom-up route to a wide variety of three-
dimensional structures, from clusters to crystals. Programming hierarchical self-assembly of …

The ability to construct discrete colloidal clusters (CCs) as complex as molecular clusters is
limited due to the lack of available colloidal building blocks and specific directional bonds …

Colloidal clusters are prepared by assembling positively charged cross-linked polystyrene
(PS) particles onto negatively charged liquid cores of swollen polymer particles. PS particles …

Colloidal clusters have received considerable attention in recent years in the context of the
fabrication of “colloidal molecules”, mimicking the symmetry of molecular structures, as well …