Abstract:
In this paper, a narrowband band stop filter with graphene is designed. The filter is designed by using a T-shaped resonator which is coupled to the transmission line. In...Show MoreMetadata
Abstract:
In this paper, a narrowband band stop filter with graphene is designed. The filter is designed by using a T-shaped resonator which is coupled to the transmission line. In the filter design, Graphene layers are placed at the metal dielectric interface to support the propagation of surface plasmonic wave’s transmission. The proposed filter has shown good resonant characteristics at 0.88 THz by using Finite Integration technique. By modifying the number of layers of graphene, the center frequency of the proposed bandstop filter is tuned from 0. 88THz to 0. 89THz with constant absolute bandwidth of 50 GHz. From the results it is apparent that the stopband response is obtained with a good attenuation of about -25dB in stopband.
Date of Conference: 07-08 January 2022
Date Added to IEEE Xplore: 14 June 2022
ISBN Information:
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- IEEE Keywords
- Index Terms
- Bandstop Filter ,
- Stop Band ,
- Surface Plasmon ,
- Transmission Line ,
- Graphene Layers ,
- Filter Design ,
- Metal-dielectric Interface ,
- Plasmon Wave ,
- Magnetic Field ,
- Carbon Atoms ,
- Relaxation Time ,
- Resonance Frequency ,
- Inverter ,
- Bias Voltage ,
- Metal Layer ,
- Fabric Thickness ,
- Presence Of Magnetic Field ,
- Properties Of Graphene ,
- Filter Response ,
- Frequency Transformer ,
- Odd Mode ,
- Graphene Nanoribbons ,
- Top Metal Layer ,
- Terahertz Frequency ,
- Thickness Of Graphene ,
- Applied Bias Voltage ,
- Quarter Wavelength
- Author Keywords
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- Bandstop Filter ,
- Stop Band ,
- Surface Plasmon ,
- Transmission Line ,
- Graphene Layers ,
- Filter Design ,
- Metal-dielectric Interface ,
- Plasmon Wave ,
- Magnetic Field ,
- Carbon Atoms ,
- Relaxation Time ,
- Resonance Frequency ,
- Inverter ,
- Bias Voltage ,
- Metal Layer ,
- Fabric Thickness ,
- Presence Of Magnetic Field ,
- Properties Of Graphene ,
- Filter Response ,
- Frequency Transformer ,
- Odd Mode ,
- Graphene Nanoribbons ,
- Top Metal Layer ,
- Terahertz Frequency ,
- Thickness Of Graphene ,
- Applied Bias Voltage ,
- Quarter Wavelength
- Author Keywords