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PIER PIER B PIER C PIER M PIER Letters PIER Photonics
2018-01-11
Investigation of Fold-Dependent Behavior in an Origami-Inspired FSS Under Normal Incidence
By
Deanna Sessions,

    Ms. Deanna Sessions

    Department of Electrical & Computer Engineering

    Penn State University

    United States

    Homepage

Kazuko Fuchi,

    Dr. Kazuko Fuchi

    University of Dayton Research Institute

    USA

    Homepage

Sumana Pallampati,

    Dr. Sumana Pallampati

    Department of Electrical & Computer Engineering

    Texas A&M University

    USA

    Homepage

David Grayson,

    Dr. David Grayson

    Department of Electrical & Computer Engineering

    Texas A&M University

    USA

    Homepage

Steven Seiler,

    Dr. Steven Seiler

    Materials & Manufacturing Directorate

    USA

    Homepage

Giorgio Bazzan,

    Dr. Giorgio Bazzan

    Materials & Manufacturing Directorate

    USA

    Homepage

Gregory Reich,

    Dr. Gregory Reich

    Aerospace Systems Directorate

    USA

    Homepage

Philip Buskohl,

    Dr. Philip Buskohl

    Materials & Manufacturing Directorate

    USA

    Homepage

Gregory H. Huff

    Prof. Gregory H. Huff

    Texas A&M University

    USA

    Homepage

Progress In Electromagnetics Research M, Vol. 63, 131-139, 2018
doi:10.2528/PIERM17092504 | Google Scholar

Abstract
Frequency selective surfaces (FSS) lter specific electromagnetic (EM) frequencies that are defined by the geometry and often fixed periodic spacing of a conductive element array. By embedding the FSS pattern into an origami structure, we expand the number of physical configurations and periodicities of the FSS, allowing for fold-driven frequency tuning. The goal of this work is to examine the fold-dependent polarization and frequency behavior of an origami-inspired FSS under normal incidence and provide physical insight into its performance. The FSS is tessellated with the Miura-ori pattern and uses resonant length metallic dipoles with orthogonal orientations for two primary modes of polarization. A driven dipole model with geometric morphologies, representative of the folding operations, provides physical insight into the observed behavior of the FSS. Full-wave simulations and experimental results demonstrate a shift in resonant frequency and transmissivity with folding, highlighting the potential of origami structures as an underlying mechanism to achieve fold-driven EM agility in FSSs.
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Citation
Deanna Sessions, Kazuko Fuchi, Sumana Pallampati, David Grayson, Steven Seiler, Giorgio Bazzan, Gregory Reich, Philip Buskohl, and Gregory H. Huff, "Investigation of Fold-Dependent Behavior in an Origami-Inspired FSS Under Normal Incidence," Progress In Electromagnetics Research M, Vol. 63, 131-139, 2018.
doi:10.2528/PIERM17092504
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