Performance prediction of a closely spaced dual port dual-band silicon-graphene antenna with high isolation for THz wireless applications using a machine learning algorithm

This article explains the design and optimization of a twin port silicon-graphene radiator in the THz frequency regime. The suggested radiator’s primary attributes are: 1) a plus-formed slot produces dual radiating mode (HEM11 δ and HEM12 δ ) inside the ceramic; 2) the presence of an absorber wall in between the twin port blocks the radiation between the ports and raises the separation level to above 35 dB as well; 3) using a graphene sheet over ceramic and metasurface (MS) provides the tunability in the proposed radiating structure; and 4) machine learning procedures, i.e., ANN and random forest, help to predict the expected S-parameters of the planned antenna. Actual (HFSS/CST software) and projected values (using the ML algorithm) confirm that the design radiator works effectively in the twin working spectrum, i.e., 3.3–3.98 and 4.9–5.45 THz. A good value of the far-field and MIMO parameters confirms its applicability in THz-built biomedical uses.

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Publication Details

Journal
Applied Optics
Published
2024-09-26
DOI
https://doi.org/10.1364/ao.533749
Citations
1
Primary Topic
Radio Frequency Integrated Circuit Design
Type
article
Field-Weighted Citation Impact
0.21
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article

Performance prediction of a closely spaced dual port dual-band silicon-graphene antenna with high isolation for THz wireless applications using a machine learning algorithm

Shridhar Kulkarni, Gopal Kumar Thakur, Lov Kumar, Rakhee Jain
1 citations
Applied Optics
Radio Frequency Integrated Circuit Design
0.21
article

Performance prediction of a closely spaced dual port dual-band silicon-graphene antenna with high isolation for THz wireless applications using a machine learning algorithm

Shridhar Kulkarni, Gopal Kumar Thakur, Lov Kumar, Rakhee Jain
article en
1 citations

Abstract

This article explains the design and optimization of a twin port silicon-graphene radiator in the THz frequency regime. The suggested radiator’s primary attributes are: 1) a plus-formed slot produces dual radiating mode (HEM11 δ and HEM12 δ ) inside the ceramic; 2) the presence of an absorber wall in between the twin port blocks the radiation between the ports and raises the separation level to above 35 dB as well; 3) using a graphene sheet over ceramic and metasurface (MS) provides the tunability in the proposed radiating structure; and 4) machine learning procedures, i.e., ANN and random forest, help to predict the expected S-parameters of the planned antenna. Actual (HFSS/CST software) and projected values (using the ML algorithm) confirm that the design radiator works effectively in the twin working spectrum, i.e., 3.3–3.98 and 4.9–5.45 THz. A good value of the far-field and MIMO parameters confirms its applicability in THz-built biomedical uses.

Applied OpticsVol. 63(30)
Harrisburg University of Science and Technology (US), Maulana Azad National Institute of Technology (IN)
Affordable and clean energy
Openalex Percentile: Top 48%
Radio Frequency Integrated Circuit Design
0.21
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