High frequency direction-finding system based on high-Tc Ion-Damaged Josephson Junction SQUID arrays

Award Information
Agency:
Department of Defense
Branch
Air Force
Amount:
$99,999.00
Award Year:
2011
Program:
STTR
Phase:
Phase I
Contract:
FA9550-11-C-0066
Award Id:
n/a
Agency Tracking Number:
F10B-T40-0116
Solicitation Year:
2010
Solicitation Topic Code:
AF10-BT40
Solicitation Number:
2010.B
Small Business Information
175 Clearbrook Road, Elmsford, NY, -
Hubzone Owned:
N
Minority Owned:
N
Woman Owned:
N
Duns:
103734869
Principal Investigator:
GeorgyProkopenko
Member of Technical Staff
(914) 592-1190
georgy@hypres.com
Business Contact:
PaulDonofrio
CFO
(914) 592-1190
donofrio@hypres.com
Research Institute:
UC Berkeley Sponsored Projects
Deborah Rutkowski-Howard
2150 Shattuck Avenue, Ste. 313
UC Berkeley
Berkeley, CA, 94704-5940
(510) 643-5603

Abstract
ABSTRACT: The overall goal of this project is to develop a small size, weight and power Direction Finding (DF) system based on SQUID array technology. High sensitivity, linearity, wide bandwidth of SQUID arrays antenna sensors will be enable close spacing of smaller antennas even for HF range. The SQUID arrays will be fabricated using high-temperature superconductor ion damaged Josephson junction fabrication process suitable for integration of large number of SQUID devices on a single chip. This would afford the use of small size robust 70K cryocoolers and will make overall system suitable for airborne deployment. HYPRES and University of California team will design, simulate, fabricate and test SQUID arrays based on conventional SQUID cells and novel bi-SQUID cells. We will develop an optimal design for 2D arrays with area distribution to achieve the highest linearity. The ion-damage junction process will be perfected to reduce fabrication spread and achieve high integration density. The overall design of HF DF system will be analyzed to achieve the highest angular accuracy while minimizing the system footprint. BENEFIT: The developed compact SQUID array-based antenna technology can be used for wireless communication networks, mobile satellite communications, secure point-to-point microwave links, biomagnetic sensors, medical imaging, and geomagnetic prospecting.

* information listed above is at the time of submission.

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