SBIR-STTR Award

Electrically Small Multiferroic Antennas
Award last edited on: 5/11/2015

Sponsored Program
STTR
Awarding Agency
DOD : AF
Total Award Amount
$899,707
Award Phase
2
Solicitation Topic Code
AF14-AT12
Principal Investigator
Yakup Bayram

Company Information

PaneraTech Inc

4125 Lafayette Center Drive Suite 200
Chantilly, VA 20151
   (703) 719-9666
   info@paneratech.com
   www.paneratech.com

Research Institution

University of California - Los Angeles

Phase I

Contract Number: FA9550-14-C-0065
Start Date: 9/30/2014    Completed: 6/29/2015
Phase I year
2014
Phase I Amount
$149,736
PaneraTech, in partnership with UCLA, is proposing to develop an extremely small UHF antenna based on Multiferroics. The Multiferroic (MF) concept allows for a sub-wavelength (
Benefit:
This technology has a tremendous potential for both military and commercial platforms. Current antenna designs rely primarily on the electromagnetic resonance characteristic of an electrically conductive antenna structure. This results in large antenna sizes and makes communication and SIGINT capability at VHF and UHF frequencies challenging for a wide range of platforms, but most notably small UAS systems. Our proposed Multiferroic based small antenna technology allows for integrating extremely small antennas on UAS airframe for VHF and UHF applications.

Keywords:
Multiferroic Antenna, Sigint, Small Antenna, Minituarized Antenna, Conformal Antenna, electronic warfare, jamming, JEMSO, congested environments, EW training, EMS monitoring, RF environment broadcasting, cognitive EW

Phase II

Contract Number: FA9550-16-C-0029
Start Date: 6/9/2016    Completed: 6/14/2018
Phase II year
2016
Phase II Amount
$749,971
During Phase I, PaneraTech in partnership with UCLA-TANMS (NSF Center for Translational Applications of Nanoscale Multiferroic Systems) achieved a groundbreaking success by designing a multiferroic small antenna based on continuous spin rotation in ferromagnetic nanoelements in periodic electrode array patterns. Specifically, we developed Finite Elements Method (FEM) models to design nanoscale periodic magnetic particle arrays, which are used as the basis of an electrically smallmagnetic dipole antenna. We studied multiple configurations of nano-dipole antenna arrays and have determined unique methods for controlling the dipoles . The array configurations and device design structures determined in Phase I provide a strong basis for the fabrication of thin film, high radiation power density magnetic dipole elements for use in antenna applications. During Phase II, the team will prototype the antenna for operation in UHF band, develop necessary evaluation board (input matching and feed network) for the antenna and demonstrate its performance with measurements in anechoic chamber.;

Benefit:
This technology has a tremendous potential for both military and commercial platforms. Current antenna designs rely primarily on the electromagnetic resonance characteristic of anelectrically conductive antenna structure. This results in large antenna sizes and makes communication and SIGINT capability at VHF and UHF frequencies challenging for a wide range of platforms, but most notably small UAS systems. Our proposed Multiferroic based small antenna technology allows for developing extremely small antennas (lambda/100) - Antenna on IC and integrating these extremely small antennas on UAS airframe for VHF andUHF applications.