Mechanical metamaterials are meticulously designed structures with exceptional
mechanical properties determined by their microstructures and constituent materials …

Recent evidence clearly shows that cells respond to various physical cues in their
environments, guiding many cellular processes and tissue morphogenesis, pathology, and …

After a decade of periodic truss-, plate-, and shell-based architectures having dominated the
design of metamaterials, we introduce the non-periodic class of spinodoid topologies …

We present a two-scale topology optimization framework for the design of macroscopic
bodies with an optimized elastic response, which is achieved by means of a spatially-variant …

Spinodal architected materials with tunable anisotropy unify optimal design and
manufacturing of multiscale structures. By locally varying the spinodal class, orientation, and …

Architected metals and ceramics with nanoscale cellular designs, eg, nanolattices, are
currently subject of extensive investigation. By harnessing extreme material size effects …

Because of increased geometric freedom at a widening range of length scales and access to
a growing material space, additive manufacturing has spurred renewed interest in topology …

The advancements of additive manufacturing enabled progressive investigations of many
atomic lattice-mimicking structures, plate-and sheet-based cellular materials. While such …

Hybrid design is an effective approach to construct functional mechanical metamaterials. In
this study, a periodic hybrid method for the TPMS (triply periodic minimal surface) structures …

Low-density materials with tailorable properties have attracted attention for decades, yet stiff
materials that can resiliently tolerate extreme forces and deformation while being …