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

折纸结构和折纸超材料由于其无穷的设计空间, 突出的变形状, 变大小, 变拓扑特性,
以及由折叠诱发的超常规力学特性, 在最近几年迅速成为数学, 物理和工程学科的研究前沿和 …

力学超材料是一类由人工微结构单元构筑的复合结构或复合材料, 具有天然材料所不具备的静
力学/动力学性能. 由于这些超常特性通常取决于微结构单元而非材料组分 …

Conventional windows encounter significant challenges in simultaneously achieving noise
reduction and ventilation. Recent advent in origami technology offers new possibilities and …

Origami-based metamaterial has shown remarkable mechanical properties rarely found in
natural materials, but achieving tailored multistage stiffness is still challenging. We propose …

In this study, we introduce a novel perforated Miura-ori phononic structure (PMPS) and
investigate the tunability of complete bandgaps or partial bandgaps in specific directions …

Acoustic metamaterials (AMM) and phononic crystals (PC) have the potential to unfold a
new wave of disruptive technologies to radically transform human interactions, sensory …

Acoustic metasurfaces display unprecedented potential for their unique and flexible
capabilities of wave front manipulations. Although rapid progress and significant …