The main objective of this paper is to propose a new metamaterial capable of generating a quasi-static stop band from zero frequency. The metamaterial is modeled by a lattice system made of mass-in-mass units. The unit cell of the proposed metamaterial contains a resonator connected to bar-spring mechanism embedded in a host mass and also linked to a fixed substrate. The stop band behavior of the new metamaterial is first investigated on basis of a lumped-parameter infinite lattice model. The equations of motion are derived using the Lagrangian approach, and then Bloch’s theorem is used to derive the dispersion relation. Analytical expressions of the stop band edge frequencies are derived in closed-form. The proposed metamaterial is then st...
The aim of this study is to design a two-dimensional solid structure with embedded inertial amplific...
In search for novel materials which combine lightweight characteristics with good acoustical behavio...
Periodic media and resonant, acoustic/elastic metamaterials possess extraordinary frequency band gap...
Metamaterials have shown great potential as lightweight and performant vibro-acoustic solutions. Mad...
Metamaterials realizing stop bands have attracted much attentions recently since they can break-thro...
AbstractEnvironmental and economic requirements lead to a constantly increasing application of light...
The narrow bandwidth is a significant limitation of elastic metamaterials for practical engineering ...
The elastic wave propagation is investigated in a beam lattice material characterized by a square pe...
Environmental and economic requirements lead to a constantly increasing application of lightweight d...
This paper investigates a modified acoustic metamaterial system with local resonators coupled throug...
Functional metamaterials offering superior dynamic performances can be conceived by introducing loca...
Architected metamaterials offering superior dynamic performances can be conceived by inducing local ...
The dispersive wave propagation in a periodic metamaterial with tetrachiral topology and inertial lo...
Combining lightweight characteristics with favourable noise and vibration behaviour, locally resonan...
Periodic anti-tetrachiral materials are strongly characterized by a marked auxeticity, the unusual a...
The aim of this study is to design a two-dimensional solid structure with embedded inertial amplific...
In search for novel materials which combine lightweight characteristics with good acoustical behavio...
Periodic media and resonant, acoustic/elastic metamaterials possess extraordinary frequency band gap...
Metamaterials have shown great potential as lightweight and performant vibro-acoustic solutions. Mad...
Metamaterials realizing stop bands have attracted much attentions recently since they can break-thro...
AbstractEnvironmental and economic requirements lead to a constantly increasing application of light...
The narrow bandwidth is a significant limitation of elastic metamaterials for practical engineering ...
The elastic wave propagation is investigated in a beam lattice material characterized by a square pe...
Environmental and economic requirements lead to a constantly increasing application of lightweight d...
This paper investigates a modified acoustic metamaterial system with local resonators coupled throug...
Functional metamaterials offering superior dynamic performances can be conceived by introducing loca...
Architected metamaterials offering superior dynamic performances can be conceived by inducing local ...
The dispersive wave propagation in a periodic metamaterial with tetrachiral topology and inertial lo...
Combining lightweight characteristics with favourable noise and vibration behaviour, locally resonan...
Periodic anti-tetrachiral materials are strongly characterized by a marked auxeticity, the unusual a...
The aim of this study is to design a two-dimensional solid structure with embedded inertial amplific...
In search for novel materials which combine lightweight characteristics with good acoustical behavio...
Periodic media and resonant, acoustic/elastic metamaterials possess extraordinary frequency band gap...