Once merely ancient arts, origami (ie, paper folding) and kirigami (ie, paper cutting) have in
recent years also become popular for building mechanical metamaterials and now provide …

Origami is inspiring several fields of knowledge such as engineering, aerospace systems,
medicine, and biomechanics, motivating the creation of novel adaptive and morphing …

Origami traces its origins to an ancient art form transforming flat thin surfaces into various
complex, fabulous 3D objects. Nowadays, such transformation transcends art by offering a …

Origami-inspired systems are attractive for creating structures and devices with tunable
properties, multiple functionalities, high-ratio packaging capabilities, easy fabrication, and …

Geometrical‐frustration‐induced anisotropy and inhomogeneity are explored to achieve
unique properties of metamaterials that set them apart from conventional materials …

Reliability-based design optimization (RBDO) algorithm is to minimize the objective under
the probabilistic factors. While gradient-based and classical evolutionary RBDO algorithms …

A new paradigm called physical reservoir computing has recently emerged, where the
nonlinear dynamics of high-dimensional and fixed physical systems are harnessed as a …

Origami metamaterials are known to display highly tunable Poisson's ratio depending on
their folded state. Most studies on the Poisson effects in deployable origami tessellations are …

The advent of acoustic metasurfaces (AMs), which are the two-dimensional equivalents of
metamaterials, has opened up new possibilities in wave manipulation using acoustically thin …

Mechanical metamaterials such as origami or ordered 3D printed structures have shown
tremendous applications in science and technology. However, the main disadvantage of …