An ultra-thin narrow-band metamaterial absorber (MA) based on a periodic array of circular metal patch is numerically proposed at terahertz frequencies. The MA could exhibit an absorption peak at 5.91 THz with the absorptivity of 99.9%. The surface current distributions and distributions of the z-component electric field indicate that high absorption is due to the strong magnetic resonance between the two metallic layers and prefect impedance-matched to the free space at the resonance frequency. By simply assembling a diagonal arrangement of several circular patches with slightly different geometric parameters into a unit cell, the bandwidth of strong absorption...
Metamaterials (MM), artificial materials engineered to have properties that may not be found in natu...
Artificially engineered metamaterials have enabled the creation of electromagnetic materials with pr...
We suggest that ultrathin broadband metamaterial is a perfect absorber in the microwave regime by ut...
A simple design of metamaterial absorber (MA) was proposed based on a periodic array of metal patch...
Single-layer metallic rings are the effective structure cell which are widely used to design single-...
A simple design of an ultrathin six-band polarization-insensitive terahertz perfect metamaterial abs...
AbstractA suspended array of square metallic patches on a thin dielectric layer is introduced as a t...
A thin-flexible and polarization-insensitive multiband terahertz metamaterial absorber (MMA) has bee...
AbstractA suspended array of square metallic patches on a thin dielectric layer is introduced as a t...
To solve the problem of complex structure and narrow absorption band of most of today′s terahertz ab...
Metamaterials (MM), artificial materials engineered to have properties that may not be found in natu...
In this paper, we propose a combined metasurface consisting of an aluminum substrate and an array of...
An array of square metallic patches on a thin suspended dielectric layer is introduced as an effecti...
The realization of broadband absorption in the terahertz regime is of significant interest in high-s...
In this paper, we propose a combined metasurface consisting of an aluminum substrate and an array of...
Metamaterials (MM), artificial materials engineered to have properties that may not be found in natu...
Artificially engineered metamaterials have enabled the creation of electromagnetic materials with pr...
We suggest that ultrathin broadband metamaterial is a perfect absorber in the microwave regime by ut...
A simple design of metamaterial absorber (MA) was proposed based on a periodic array of metal patch...
Single-layer metallic rings are the effective structure cell which are widely used to design single-...
A simple design of an ultrathin six-band polarization-insensitive terahertz perfect metamaterial abs...
AbstractA suspended array of square metallic patches on a thin dielectric layer is introduced as a t...
A thin-flexible and polarization-insensitive multiband terahertz metamaterial absorber (MMA) has bee...
AbstractA suspended array of square metallic patches on a thin dielectric layer is introduced as a t...
To solve the problem of complex structure and narrow absorption band of most of today′s terahertz ab...
Metamaterials (MM), artificial materials engineered to have properties that may not be found in natu...
In this paper, we propose a combined metasurface consisting of an aluminum substrate and an array of...
An array of square metallic patches on a thin suspended dielectric layer is introduced as an effecti...
The realization of broadband absorption in the terahertz regime is of significant interest in high-s...
In this paper, we propose a combined metasurface consisting of an aluminum substrate and an array of...
Metamaterials (MM), artificial materials engineered to have properties that may not be found in natu...
Artificially engineered metamaterials have enabled the creation of electromagnetic materials with pr...
We suggest that ultrathin broadband metamaterial is a perfect absorber in the microwave regime by ut...