SBIR-STTR Award

P22-083 A21C-T002 Phase II STTR (Smith)
Award last edited on: 8/19/2024

Sponsored Program
STTR
Awarding Agency
DOD : Army
Total Award Amount
$1,322,992
Award Phase
2
Solicitation Topic Code
A21C-T002
Principal Investigator
Graham Smith

Company Information

First RF Corporation

6150 Lookout Road
Boulder, CO 80301
   (303) 449-5211
   inquiries@firstrf.com
   www.firstrf.com

Research Institution

San Diego State University

Phase I

Contract Number: W15QKN-22-C-0063
Start Date: 6/7/2022    Completed: 12/8/2022
Phase I year
2022
Phase I Amount
$172,997
Recent advancements in artillery, muzzle velocity, and post-launch propulsion technology have enabled gun-launched projectiles to travel faster and at longer ranges than ever before. To be most effective in flight and at range, the projectiles must incorporate RF sensors to enable advanced, mission-critical functionality. The RF sensors must also be able to survive and operate through extreme gun-launch and hypersonic aerothermal environments. To survive the thermal requirements, the sensors must reside underneath a wideband RF transparent window. The integration of both the window and antenna must be accomplished in such a way to be compatible to the projectile size, weight, and power constraints. FIRST RF has, over the years, developed numerous key antenna technologies capable of sustained operation in the gun-launched and hypersonic regimes. This technology will be leveraged in this effort. Additionally, as with all small weapons, space is very limited. As more and more frequencies (bandwidth) are desired, the complexity and volume required increases. FIRST RF has developed both conformal antennas and miniaturized wideband antennas that may be used for gun-launched projectile applications. It is proposed that these antennas be combined with high shock window materials and construction methods to create a highly versatile solution for the warfighter. This overall approach significantly lowers the required volume allocation, complexity, cost and weight of the sensor system.

Phase II

Contract Number: W15QKN-23-C-0025
Start Date: 9/26/2023    Completed: 9/25/2025
Phase II year
2023
Phase II Amount
$1,149,995
Recent advancements in artillery, muzzle velocity, and post-launch propulsion technology have enabled precision guided munitions (PGMs) to travel faster and at longer ranges than ever before. To be most effective in flight and at range, the munitions must incorporate RF sensors to enable advanced, mission-critical functionality. The RF sensors must also be able to survive and operate through extreme gun-launch and hypersonic aerothermal environments. To survive the thermal requirements, the sensors must reside underneath a wideband RF transparent window. The integration of both the window and antenna must be accomplished in such a way to be compatible to the projectile size, weight, and power constraints. FIRST RF has, over the years, developed numerous key antenna technologies capable of sustained operation in the artillery-launched and hypersonic regimes. This technology will be leveraged in this effort. Additionally, as with all PGMs, space is very limited. As more and more frequencies (bandwidth) are desired, the complexity and volume required increases. FIRST RF has developed both conformal antennas and miniaturized wideband antennas that may be used for gun-launched munition applications. It is proposed that these antennas be combined with high shock window materials and construction methods to create a highly versatile solution for the warfighter. This overall approach significantly lowers the required volume allocation, complexity, cost and weight of the sensor system. Recent advancements in artillery, muzzle velocity, and post-launch propulsion technology have enabled precision guided munitions (PGMs) to travel faster and at longer ranges than ever before. To be most effective in flight and at range, the munitions must incorporate RF sensors to enable advanced, mission-critical functionality. The RF sensors must also be able to survive and operate through extreme gun-launch and hypersonic aerothermal environments. To survive the thermal requirements, the sensors must reside underneath a wideband RF transparent window. The integration of both the window and antenna must be accomplished in such a way to be compatible to the projectile size, weight, and power constraints. FIRST RF has, over the years, developed numerous key antenna technologies capable of sustained operation in the artillery-launched and hypersonic regimes. This technology will be leveraged in this effort. Additionally, as with all PGMs, space is very limited. As more and more frequencies (bandwidth) are desired, the complexity and volume required increases. FIRST RF has developed both conformal antennas and miniaturized wideband antennas that may be used for gun-launched munition applications. It is proposed that these antennas be combined with high shock window materials and construction methods to create a highly versatile solution for the warfighter. This overall approach significantly lowers the required volume allocation, complexity, cost and weight of the sensor system.