Frequency Tunable Metamaterial Designs Using Near Field Coupled SRR Structures in the Terahertz Region

Date

2011-01-01

Author

Ekmeki, Evren
Strikwerda, Andrew C.
Fan, Kebin
Keiser, George
Zhang, Xin
Sayan, Gönül
Averitt, Richard D.

Metadata

Show full item record

This work is licensed under a Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International License.

Item Usage Stats

35
views

0
downloads

We present frequency tunable metamaterials at terahertz frequencies using broadside-coupled split ring resonators (BC-SRRs). Frequency tuning, arising from changes in near field coupling, is obtained by in-plane displacement between the SRR layers. For electrical excitation, the resonance frequency continuously redshifts as a function of displacement. A maximum frequency shift occurs for displacement of half a unit cell resulting in a shift of 663 GHz (51% of f0). We discuss the difference in the BC-SRR response for electrical excitation in comparison to magnetic excitation in terms of hybridization arising from inductive and capacitive coupling.

URI

https://hdl.handle.net/11511/53070

Collections

Unclassified, Article

Suggestions

OpenMETU
Core

Frequency tunable metamaterial designs using near field coupled SRR structures in the terahertz region Ekmeki, Evren; Strikwerda, Andrew C.; Fan, Kebin; Keiser, George; Zhang, Xin; Sayan, Gönül; Averitt, Richard D. (2011-12-01) We present frequency tunable metamaterials at terahertz frequencies using broadside-coupled split ring resonators (BC-SRRs). Frequency tuning, arising from changes in near field coupling, is obtained by in-plane displacement between the SRR layers. For electrical excitation, the resonance frequency continuously redshifts as a function of displacement. A maximum frequency shift occurs for displacement of half a unit cell resulting in a shift of 663 GHz (51% of f 0). We discuss the difference in the BC-SRR re...
Frequency Tunable Metamaterial Designs Using Near Field Coupled SRR Structures in the Terahertz Region Ekmekci, Evren; Strikwerda, A. C.; Fan, K.; Keiser, G.; Zhang, Xin; Turhan-Sayan, G.; Averitt, Richard D. (2011-05-06) We present frequency tunable metamaterials at terahertz frequencies using broadside-coupled split ring resonators. Frequency tuning, arising from changes in near field coupling, is obtained by in-plane displacement between the SRR layers. A maximum frequency shift occurs for displacement of half a unit cell resulting in a shift of 663 GHz (51% of f(0)).
Frequency tunable metamaterial designs using near field coupled SRR structures in the terahertz region Ekmekci, Evren; Strikwerda, A.c.; Fan, K.; Keiser, G.; Zhang, Xin; Sayan, Gönül; Averitt, Richard D. (2011-09-01) We present frequency tunable metamaterials at terahertz frequencies using broadside-coupled split ring resonators. Frequency tuning, arising from changes in near field coupling, is obtained by in-plane displacement between the SRR layers. A maximum frequency shift occurs for displacement of half a unit cell resulting in a shift of 663 GHz (51% of f0). © 2011 OSA.
Frequency tunable metamaterial designs using near field coupled SRR structures in the terahertz region Ekmekci, Evren; Strikwerda, A.c.; Fan, K.; Keiser, G.; Zhang, Xin; Sayan, Gönül; Averitt, Richard D. (2011-12-01) We present frequency tunable metamaterials at terahertz frequencies using broadsidecoupled split ring resonators. Frequency tuning, arising from changes in near field coupling, is obtained by in-plane displacement between the SRR layers. A maximum frequency shift occurs for displacement of half a unit cell resulting in a shift of 663 GHz (51% of f0). © OSA/CLEO 2011.
Frequency tunable metamaterial designs using near field coupled SRR structures in the terahertz region Ekmekci, Evren; Strikwerda, A.c.; Fan, K.; Keiser, G.; Zhang, Xin; Sayan, Gönül; Averitt, Richard D. (2011-12-01) We present frequency tunable metamaterials at terahertz frequencies using broadsidecoupled split ring resonators. Frequency tuning, arising from changes in near field coupling, is obtained by in-plane displacement between the SRR layers. A maximum frequency shift occurs for displacement of half a unit cell resulting in a shift of 663 GHz (51% of f0). © OSA/CLEO 2011.

Citation Formats

E. Ekmeki et al., “Frequency Tunable Metamaterial Designs Using Near Field Coupled SRR Structures in the Terahertz Region,” 2011, Accessed: 00, 2020. [Online]. Available: https://hdl.handle.net/11511/53070.