SBIR-STTR Award

Row Column Phased Array Architecture for Low Cost, Low Profile Millimeter Wave Phased Array Antennas
Award last edited on: 6/15/2020

Sponsored Program
SBIR
Awarding Agency
NASA : JPL
Total Award Amount
$874,995
Award Phase
2
Solicitation Topic Code
H9.04
Principal Investigator
Philip Keith Kelly

Company Information

Agile RF Systems LLC

4316 Beverly Drive
Berthoud, CO 80513
   (303) 522-0303
   info@agilerfsystems.com
   www.agilerfsystems.com
Location: Single
Congr. District: 02
County: Larimer

Phase I

Contract Number: NNX17CG24P
Start Date: 00/00/00    Completed: 00/00/00
Phase I year
2017
Phase I Amount
$124,996
There is high demand for electronically steered antennas particularly at millimeter wavelengths. However, the cost to develop and procure this type of antenna prohibits this technology from widespread use. The proposed innovation substantially reduces the control complexity of phased arrays by reducing the control set from MxN phase controls to M+N phase controls where M and N represent the number of rows and columns in the phased array. By reducing the control complexity, not only are the phased array devices simplified, but the control distribution network is substantially reduced. This simplification ripples across the entire phased array to improve physical integration and thermal management which often cost as much as the phased array components. This is particularly important for high frequency antennas where unit cell sizes become a significant impediment to system implementation. Another limitation in state of the art phased arrays are the conventional planar radiators that are easily integrated. A three-dimensional radiator and manufacturing technology is baselined to enhance the bandwidth and performance of millimeter wave phased array antennas. This combination enables significant opportunities to support multifunction operation.

Phase II

Contract Number: 80NSSC18C0048
Start Date: 00/00/00    Completed: 00/00/00
Phase II year
2018
Phase II Amount
$749,999
There is high demand for electronically steered antennas particularly at millimeter wavelengths. However, the cost to develop and procure this type of antenna prohibits this technology from widespread use. The proposed innovation substantially reduces the control complexity of phased arrays by reducing the control set from MxN phase controls to M+N phase controls where M and N represent the number of rows and columns in the phased array. By reducing the control complexity, not only are the phased array devices simplified, but the control distribution network is substantially reduced. This simplification ripples across the entire phased array to improve physical integration and thermal management which often cost as much as the phased array components. This is particularly important for high frequency antennas where unit cell sizes become a significant impediment to system implementation. This proposal summarizes the Phase I SBIR findings definitively demonstrating the phased array innovation feasibility and applicability to future NASA Ka band communications and sensors. This phased array technology does not rely on future advancements in device technology and controls but is realizable using proven, inherently radiation hardened MMIC device technology widely available today. A prototype demonstration is proposed that will operate from 25.25 to 27.5 GHz with 8 dBm output power at each unit cell to illustrate millimeter wave phased array capabilities.