SBIR-STTR Award

Atmospheric InfraRed Measurement and Assessment System (AIRMASS)
Award last edited on: 6/7/2023

Sponsored Program
SBIR
Awarding Agency
DOD : AF
Total Award Amount
$898,177
Award Phase
2
Solicitation Topic Code
AF182-030
Principal Investigator
Sean Stratton

Company Information

SciTec Inc (AKA: Princton Science, Inc)

100 Wall Street
Princeton, NJ 08540
   (609) 921-3892
   wca@scitec.com
   www.scitec.com
Location: Multiple
Congr. District: 12
County: Mercer

Phase I

Contract Number: FA9302-19-P-1015
Start Date: 5/1/2019    Completed: 5/1/2020
Phase I year
2019
Phase I Amount
$148,209
SciTec has a long history of end-to-end sensor performance testing and analysis with proven methodology for accurate measurement of signatures in a variety of test scenarios.We will leverage this experience to conduct a trade study and develop a prototype design concept specific to the performance assessment of infrared search and track (IRST) systems currently being developed and tested as part of aircraft weapon systems.SciTecs Airborne IRST Measurement & Assessment Sensor System (AIRMASS) combines our corporate expertise in sensor phenomenology and processing with high-TRL, commercially available sensors and state-of-the-art weather models to provide an accurate and robust system for end-to-end IRST performance assessment across a variety of flight engagement scenarios.Infrared Search and Track (IRST),Atmospheric Environmental Metrology,mid-wave infrared (MWIR),Long-Wave Infrared (LWIR),Noise Equivalent Delta-Temperature (NEDT),Modulation Transfer Function (MTF),Sensor Flight Test,Electro-optical Infrared (EO/IR)

Phase II

Contract Number: FA9302-21-C-0008
Start Date: 6/15/2021    Completed: 9/15/2023
Phase II year
2021
Phase II Amount
$749,968
Infrared sensing technology is invaluable as a means to passively detect, identify, and track threats where visible-light methods fall short. Warfighters need to be aware of the presence of a threat as early as possible to provide sufficient time to act. This drives industry toward sensors that test the limits of resolution and SNR that physics allows. Flight testing of these systems is critical to ensure they perform as specified prior to deployment. Atmospheric variability has a major impact on the confidence of these tests, which are typically designed to mitigate or remove its effect. Modern sensor systems, however, have advanced to the point where commonly-held assumptions about the atmosphere no longer apply, thus creating a demand for a system that incorporates true-of-date atmospheric data. AIRMASS meets that demand by taking advantage of the vast databases of public-domain meteorology data that are available supported by high-resolution imagery collected from a pod-based sensor system. AIRMASS hardware leverages tried and tested COTS and GOTS systems to ensure reliability. The AIRMASS pod will integrate with SciTec’s AIRTRAC application, which computes atmospheric transmittance factors using MODTRAN informed by meteorology data from NOAA and other open sources. A clear picture of the hardware solution must be established before any changes can be made to AIRTRAC that incorporates it. So the primary task of Phase I has been to research the trade space of existing sensor and pod systems and to determine how they can be used to meet the performance that USAF flight testing demands, or if there are existing systems that already qualify. The secondary objective was to predict the accuracy and viability of such a system.