Broadband electromagnetic metamaterials with reconfigurable fluid channels
Linde Liu, Alexander R. Katko, Dennis Li, Steven A. Cummer
Abstract
Linde Liu, Alexander R. Katko, Dennis Li, Steven A. Cummer
Abstract
We present the design, characterization, and experimental verification of broadband and tunable metamaterials based on reconfigurable fluid channels. We demonstrate through simulation that a finite-height cylinder of water in a background medium behaves as a nonresonant metamaterial. By changing liquid type or adjusting liquid level, we tune the effective material parameters of the metamaterial through altering the composition and amount of water used. We verify the efficacy of the metamaterial through experiment, demonstrating a design procedure for a metamaterial with broadband and tunable properties.
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We present the design, characterization, and experimental verification of broadband and tunable metamaterials based on reconfigurable fluid channels. We demonstrate through simulation that a finite-height cylinder of water in a background medium behaves as a nonresonant metamaterial. By changing liquid type or adjusting liquid level, we tune the effective material parameters of the metamaterial through altering the composition and amount of water used. We verify the efficacy of the metamaterial through experiment, demonstrating a design procedure for a metamaterial with broadband and tunable properties.
Key concepts: Metamaterial, Broadband, Metamaterial absorber, Split-ring resonator, Cylinder, Materials science, Tunable metamaterials, Optoelectronics