In this contribution, we simulate and design a electronically tunable microstrip attenuator based on graphene. To this aim, graphene is modeled as an ideal surface resistor at microwave frequency (5 GHz), changing with an external electric Bias. The presented device includes a patch of graphene, whose characteristics can range from fairly good conductor to highly lossy material, depending on the applied voltage. By applying the proper voltage through two high-impedance bias lines, the achieved change in the surface resistivity of graphene induces appreciable change of the insertion loss of the microstrip attenuator. © 2014 European Microwave Association-EUM
This paper presents the design of a graphenebased electronically tuneable microstrip attenuator oper...
This paper presents the design of a graphenebased electronically tuneable microstrip attenuator oper...
We present the design of a graphene-based electronically tuneable microstrip attenuator operating ...
In this contribution, we simulate and design a electronically tunable microstrip attenuator based on...
In this contribution, we simulate and design a electronically tunable microstrip attenuator based on...
In this contribution, we simulate and design a electronically tunable microstrip attenuator based on...
In this contribution, we simulate and design a electronically tunable microstrip attenuator based on...
We present the design of a graphene-based electronically tuneable microstrip attenuator operating at...
We present the design of a graphene-based electronically tuneable microstrip attenuator operating at...
This paper presents the design of a graphenebased electronically tunable microstrip attenuator oper...
This paper presents the design of a graphenebased electronically tuneable microstrip attenuator oper...
This paper presents the design of a graphenebased electronically tuneable microstrip attenuator oper...
This paper presents the design of a graphenebased electronically tunable microstrip attenuator oper...
This paper presents the design of a graphenebased electronically tunable microstrip attenuator oper...
This paper presents the design of a graphenebased electronically tunable microstrip attenuator oper...
This paper presents the design of a graphenebased electronically tuneable microstrip attenuator oper...
This paper presents the design of a graphenebased electronically tuneable microstrip attenuator oper...
We present the design of a graphene-based electronically tuneable microstrip attenuator operating ...
In this contribution, we simulate and design a electronically tunable microstrip attenuator based on...
In this contribution, we simulate and design a electronically tunable microstrip attenuator based on...
In this contribution, we simulate and design a electronically tunable microstrip attenuator based on...
In this contribution, we simulate and design a electronically tunable microstrip attenuator based on...
We present the design of a graphene-based electronically tuneable microstrip attenuator operating at...
We present the design of a graphene-based electronically tuneable microstrip attenuator operating at...
This paper presents the design of a graphenebased electronically tunable microstrip attenuator oper...
This paper presents the design of a graphenebased electronically tuneable microstrip attenuator oper...
This paper presents the design of a graphenebased electronically tuneable microstrip attenuator oper...
This paper presents the design of a graphenebased electronically tunable microstrip attenuator oper...
This paper presents the design of a graphenebased electronically tunable microstrip attenuator oper...
This paper presents the design of a graphenebased electronically tunable microstrip attenuator oper...
This paper presents the design of a graphenebased electronically tuneable microstrip attenuator oper...
This paper presents the design of a graphenebased electronically tuneable microstrip attenuator oper...
We present the design of a graphene-based electronically tuneable microstrip attenuator operating ...