Investigation of Fold-Dependent Behavior in an Origami-Inspired FSS under Normal Incidence (Postprint)

Abstract

Frequency selective surfaces (FSS) filter specific electromagnetic (EM) frequencies 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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Document Details

Document Type
Technical Report
Publication Date
Jan 11, 2018
Accession Number
AD1039279

Entities

People

  • D. Grayson
  • D. Sessions
  • G. Bazzan
  • G. H. Huff
  • G. W. Reich
  • K. Fuchi
  • Philip R. Buskohl
  • S. Pallampati
  • S. Seiler

Organizations

  • Texas A&M University

Tags

Communities of Interest

  • Advanced Electronics
  • Air Platforms

DTIC Thesaurus Topics

  • Air Force
  • Air Force Research Laboratories
  • Antennas
  • Calibration
  • Engineering
  • Fabrication
  • Frequency
  • Frequency Agility
  • Governments
  • Information Operations
  • Materials
  • Military Research
  • Orientation (Direction)
  • Polarization
  • Resonant Frequency
  • Simulations
  • Waves

Readers

  • Aerial Delivery - Logistics and Supply Chain Management.
  • Electromagnetic Wave Scattering and Antenna Radiation Engineering
  • Nanoscale Plasmonic Nanotechnology

Technology Areas

  • Space