We propose an original technique for the fabrication of terahertz (THz) metasurfaces comprising a 3D printed regular array of polymer hemispheres covered with a thin conductive layer. We demonstrate that the deposition of a thin metal layer onto polymer hemispheres suppresses the THz reflectivity to almost zero, while the frequency range of such a suppression can be considerably broadened by enhancing the structure with graphene. Scaling up of the proposed technique makes it possible to tailor the electromagnetic responses of metasurfaces and allows for the fabrication of various components of THz photonics
By exploiting singular spatial modulations of the graphene conductivity, we design a broadband, tuna...
With the increasing demand for the miniaturization and flexibility of optical devices, graphene-base...
Tunable metasurfaces, whose functionality can be dynamically modified, open up the possibility of ul...
Graphene is proving to be an efficient medium for the control of mm-wave/THz radiation. Its electric...
We present a simple design for a broadband tunable terahertz (THz) metamaterial absorber (MMA) consi...
We numerically demonstrate a broadband terahertz (THz) absorber that is based on a hybrid-patterned ...
In this work, we propose the investigation of the terahertz performance of a graphene-based multilay...
Since the isolation of graphene in 2004, a large amount of research has been directed at 2D material...
Abstract We propose and numerically demonstrate an ultra-broadband graphene-based metamaterial absor...
We demonstrate metamaterial-based electro-absorption THz modulators employing frequency-selective-su...
In this paper, we theoretically designed and numerically analyzed an ultrabroadband meta-absorber wi...
Graphene is a powerful 2-D matter with the capability of extraordinary transparency, and tunable con...
Graphene is a powerful 2-D matter with the capability of extraordinary transparency, and tunable con...
Terahertz (THz) science and technology has experienced tremendous progress in recent years, such as ...
We propose a novel graphene-dielectric-based meta-surface for manipulating the polarization of the i...
By exploiting singular spatial modulations of the graphene conductivity, we design a broadband, tuna...
With the increasing demand for the miniaturization and flexibility of optical devices, graphene-base...
Tunable metasurfaces, whose functionality can be dynamically modified, open up the possibility of ul...
Graphene is proving to be an efficient medium for the control of mm-wave/THz radiation. Its electric...
We present a simple design for a broadband tunable terahertz (THz) metamaterial absorber (MMA) consi...
We numerically demonstrate a broadband terahertz (THz) absorber that is based on a hybrid-patterned ...
In this work, we propose the investigation of the terahertz performance of a graphene-based multilay...
Since the isolation of graphene in 2004, a large amount of research has been directed at 2D material...
Abstract We propose and numerically demonstrate an ultra-broadband graphene-based metamaterial absor...
We demonstrate metamaterial-based electro-absorption THz modulators employing frequency-selective-su...
In this paper, we theoretically designed and numerically analyzed an ultrabroadband meta-absorber wi...
Graphene is a powerful 2-D matter with the capability of extraordinary transparency, and tunable con...
Graphene is a powerful 2-D matter with the capability of extraordinary transparency, and tunable con...
Terahertz (THz) science and technology has experienced tremendous progress in recent years, such as ...
We propose a novel graphene-dielectric-based meta-surface for manipulating the polarization of the i...
By exploiting singular spatial modulations of the graphene conductivity, we design a broadband, tuna...
With the increasing demand for the miniaturization and flexibility of optical devices, graphene-base...
Tunable metasurfaces, whose functionality can be dynamically modified, open up the possibility of ul...