NASA SBIR 2018-I Solicitation

Proposal Summary


PROPOSAL NUMBER:
 18-1- Z11.01-4832
SUBTOPIC TITLE:
 NDE Sensors
PROPOSAL TITLE:
 4.3 GHz Passive Wireless Sensor System
SMALL BUSINESS CONCERN (Firm Name, Mail Address, City/State/Zip, Phone)
Pegasense, LLC
1511 East State Road 434, Suite 2001
Winter Springs , FL 32708-5646
(407) 758-4446

Principal Investigator (Name, E-mail, Mail Address, City/State/Zip, Phone)
Dr. Donald Malocha
dcmalocha@cfl.rr.com
426 Sandringham Ct. Winter Springs, FL 32708 - 2725
(407) 758-4446

Business Official (Name, E-mail, Mail Address, City/State/Zip, Phone)
Dr. Svetlana Malocha
smalocha@cfl.rr.com
426 Sandringham Court Winter Springs, FL 32708 - 2725
(407) 766-5783
Estimated Technology Readiness Level (TRL) :
Begin: 3
End: 4
Technical Abstract

Thru several NASA SBIR/STTR and DoD contracts, the University of Central Florida’s (UCF) Center for Acoustoelectronics Technology (CAAT) group has a developed and demonstrated a complete 915 MHZ SAW sensor system, having measured temperature, strain, hydrogen gas, magnetic fields and others.   Pegasense and UCF will team and collaborate to further the state-of-the-art in wireless sensor technology effort, provide a handheld wireless sensor system at TRL 3-4 in Phase I and TRL 5-6 in Phase II, and demonstrate sensor interrogation using multiple temperature sensor platforms at 4.3 GHz.  It is a significant upgrade of the current UCF 915 MHz wireless software defined radio (SDR) approach, to the newly opened avionics band at 4.3 GHz with a 200 MHz bandwidth.   All the experience, approaches, and methodologies gained in the 915 MHz SDR system will provide a path forward.  The Phase I prototype system will be at the requested TRL 3-4 level and a demonstration will be provided to NASA.  The current UCF 915 MHz system has been fully developed and demonstrated with SAW sensors, however, the SDR system approach will software changes in hardware configuration and post-processing, such that any sensor in the operational band could be successfully interrogated.  Therefore, new SAW temperature sensors at 4.3 GHz and other technologies, such as self-resonant antenna, dielectric resonator sensors or others, would demonstrate the SDR approach across multiple sensor technology platforms.  To the proposers’ knowledge, an SDR 4.3 GHz sensor transceiver system has not been previously demonstrated, 4.3 GHz SAW sensor devices have not ever been demonstrated, and a cross sensor platform approach has not been previously demonstrated.  Success in the Phase I and Phase II of the proposed work would be a significant technology leap forward by making a reprogrammable SDR transceiver capable of interrogating multiple sensors, and sensor embodiments and mixed technologies.   

Potential NASA Applications

•Wireless measurements on rotating parts

•Wireless passive sensors in wings, fuselage, or other inaccessible points

•Wireless sensor networking and SHM master monitor

•Wireless massively deployed sensors

•Inflatable habitats

•Hydrogen gas sensing in launch vehicles, ground support, and others

•Cryogenic gas and liquid monitoring

Potential Non-NASA Applications

•Military and commercial aircraft SHM

•Airplane cabin SHM

•Landing gear SHM

•Sensor monitoring of inaccessible areas, within the fuselage or wings of airframes

•Hydrogen, methane, ammonia, humidity, gas and other wireless passive sensors

•Transportation (Bridges, highways, etc.) wireless monitoring

•Engine and turbine monitoring


Form Generated on 05/25/2018 12:03:31