Applied Electromagnetics Lab
NUMERICAL + DATA-DRIVEN

Terahertz Metasurfaces

How can tunable resonators and graphene-enabled metasurfaces produce interpretable refractive-index sensing signatures at terahertz frequencies?

Research question

How can tunable resonators and graphene-enabled metasurfaces produce interpretable refractive-index sensing signatures at terahertz frequencies?

From electromagnetic mechanism to evidence.

The work studies how geometry, tunable surface conductivity, field localization, and multi-frequency response interact in THz sensing structures. A core goal is to keep the link between the electromagnetic mechanism and the data-driven interpretation visible, rather than treating classification as a detached post-processing step.

DesignGraphene / resonator geometry
SimulateFull-wave THz response
ExplainFields, currents and resonance shifts
InterpretMulti-feature sensing / classification

Evidence & related work

Graphene/MoS₂ metasurface

Graphene-enabled dual elliptical-ring metasurface studied for terahertz refractive-index sensing.

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Nested split-ring THz sensor

Graphene-assisted nested split-ring resonator analysed with S-parameter features and multiple supervised classifiers.

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Research connection

Part of a common lab workflow.

Physics → measurement or full-wave simulation → structured electromagnetic data → physically interpretable inference.

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