An innovative spider-like multi-origami metamaterial for tunable low-frequency vibration attenuation

Research output: Journal Publications and Reviews › Comment/debate › peer-review

Fingerprint

???publication_fingerprints_help???

Material Science

100
Metamaterial Material Science
25
Resonator Material Science
25
Finite Element Meth... Material Science
25
Strength of Materia... Material Science

Keyphrases

100
Band Gap Keyphrases
100
Low-frequency Vibra... Keyphrases
100
Vibration Attenuati... Keyphrases
100
Spiders Keyphrases
100
Origami Metamateria... Keyphrases
33
Mechanical Properti... Keyphrases
33
Wave Propagation Keyphrases
33
Resonator Keyphrases
33
Dispersion Relation Keyphrases
33
Finite Element Simu... Keyphrases
33
Transmission Spectr... Keyphrases
33
Wide-ranging Keyphrases
33
Biomimetic Keyphrases
33
Metamaterials Keyphrases
33
Tunability Keyphrases
33
Supercells Keyphrases
33
Flexural Wave Propa... Keyphrases
33
Propagation Behavio... Keyphrases
33
Dynamic Propagation Keyphrases
33
Origami Keyphrases
33
Origami Structure Keyphrases
33
Springer Nature Keyphrases
33
Wave Attenuation Keyphrases
33
Exclusive License Keyphrases
33
Kresling Origami Keyphrases
33
Miura Origami Keyphrases

INIS

100
attenuation INIS
100
spiders INIS
100
metamaterials INIS
50
design INIS
50
dynamics INIS
50
transmission INIS
50
applications INIS
50
wave propagation INIS
50
mechanics INIS
25
spectra INIS
25
mechanical properti... INIS
25
width INIS
25
simulation INIS
25
resonators INIS
25
finite element meth... INIS
25
architecture INIS
25
frequency range INIS
25
physics INIS
25
valleys INIS
25
dispersion relation... INIS
25
mathematics INIS
25
biomimetics INIS
25
licenses INIS
Research OutputsResearch Output authored by An innovative spider-like multi-origami metamaterial for tunable low-frequency vibration attenuation is tagged with the concept