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The Award database is continually updated throughout the year. As a result, data for FY24 is not expected to be complete until March, 2025.

Download all SBIR.gov award data either with award abstracts (290MB) or without award abstracts (65MB). A data dictionary and additional information is located on the Data Resource Page. Files are refreshed monthly.

The SBIR.gov award data files now contain the required fields to calculate award timeliness for individual awards or for an agency or branch. Additional information on calculating award timeliness is available on the Data Resource Page.

  1. Agnostic Wireless Communications Waveform Gateway

    SBC: MAXENTRIC TECHNOLOGIES LLC            Topic: N09T037

    Each tactical radio uses a particular waveform which inhibits it from freely communicating with a radio on another network. This necessitates a flexible communication gateway that supports interoperability and can automatically translate among a set of waveforms to transfer information across networks. Typically, gateways only support a pair of protocols or waveforms and the translation between th ...

    STTR Phase I 2009 Department of DefenseNavy
  2. A Large Aperture Electro-Optic Beamsteerer

    SBC: VESCENT PHOTONICS LLC            Topic: AF08T021

    We propose to develop a fully electro-optic beamsteerer for large aperture beams. The beamsteerer will be able to deflect 3-cm beam into a field of regard of 50 deg x 20 deg. In Phase I we will demonstrate and model key technologies needed for a Phase II deliverable. These include a highly birefringent liquid crystals, waveguide couplers, and high-index, high contrast waveguides that will give ...

    STTR Phase I 2009 Department of DefenseAir Force
  3. A Low Cost Production Process for Large High Temperature Polymer Matrix Composites

    SBC: ELTRON RESEARCH & DEVELOPMENT, INCORPORATED            Topic: AF07T013

    Eltron Research & Development Inc. and the Southwest Research Institute® will focus on three primary objectives during Phase II of this Air Force Office of Scientific Research (AFOSR) STTR program, building upon the success realized during Phase I work. First, we will be prepared to transition High Temperature Vacuum Assisted Resin Transfer Molding (HTVARTM) needed in Phase III, by optimizing and ...

    STTR Phase II 2009 Department of DefenseAir Force
  4. A Novel Approach to Impregnating Structural Resin into Carbon Nanotube (CNT) Assemblies to Yield Ultrahigh-Loaded Polymer Nanocomposites

    SBC: COMPOSITE TECHNOLOGY DEVELOPMENT, INC.            Topic: N08T017

    The primary objective of this program is the further development of ultrahigh-loaded carbon nanotube (CNT) polymer composites as next-generation structural materials. In Phase II, Composite Technology Development, Inc. (CTD) and The University of Texas at Dallas (UTD) propose significant advancements in material and process development, testing and characterization, and manufacturing toward a spec ...

    STTR Phase II 2009 Department of DefenseNavy
  5. A Tunable, High Power, Solid State Terahertz Source for Imaging and Spectroscopy

    SBC: DOLCE Technologies, LLC            Topic: AF08T009

    DOLCE Technologies, LLC, in collaboration with Professor Claire Gmachl’s research group at Princeton University, will develop and deliver an all solid-state, milliwatt-class Terahertz laser source. Upon completion of Phase II, devices will be available for distribution and use by the Terahertz imaging and spectroscopy communities where there is currently a lack of high-power, low-cost sources. ...

    STTR Phase I 2009 Department of DefenseAir Force
  6. Autonomous Nonbattery Wireless Strain Gage for Structural Health Testing and Monitoring in Extreme Environments

    SBC: Albido Corporation            Topic: AF08BT01

    There is a need to monitor the structural health of aerospace components operating in extreme temperatures ranges (e.g. -60 to +300C) and with high accelerations. Ideally the sensors employed for this task should be passive (i.e. not powered through batteries), permanently placed on the critical components and transmit the relevant data to a remote data processing center wirelessly.  Albido is pr ...

    STTR Phase I 2009 Department of DefenseAir Force
  7. Chip-Scale Lasers for Inertial Navigation Systems Using Atom Chip Sensors

    SBC: VESCENT PHOTONICS LLC            Topic: AF07T024

    We propose to develop and build a novel chip-scale external cavity laser with frequency agility for use in matter-wave inertial navigation systems.  These lasers exhibit narrow linewidth, frequency agility (10 GHz), environmental immunity, and can be precisely tuned during manufacture to rubidium D2 transitions or any transition wavelength where Fabry-Perot laser diodes are available, without the ...

    STTR Phase II 2009 Department of DefenseAir Force
  8. Common Optical and RF Threat Sensor System

    SBC: BOULDER NONLINEAR SYSTEMS, INC.            Topic: N09T030

    Boulder Nonlinear Systems along with our partners the Ladar and Optical Communications Institute (LOCI) at University of Dayton and the ElectroScience Laboratory (ESL) at The Ohio State University, propose investigation of the requirements and identification of the basic architecture for a common electro-optic (EO) and radio frequency (RF) threat sensor system. During Phase I, we will conduct a ...

    STTR Phase I 2009 Department of DefenseNavy
  9. Compact Pulse Generator

    SBC: NDI ENGINEERING COMPANY            Topic: N07T013

    Produce protype and successfully demonstrate the key technology areas identified in Phase 1,thereby significantly reducing the technical risk for successful development of the concept. Complete a thorough design of the concept, including electromagnetic, electrical, mechanical, and thermal analysis that supports a viable design concept.

    STTR Phase II 2009 Department of DefenseNavy
  10. Computer Aided Design for Rapid Development of Novel Optical Materials and Sensors

    SBC: SIMPHOTEK, INC.            Topic: AF07T029

    Sophisticated optical computer-aided-design (CAD) software is needed to greatly reduce the time and money required to design new optical materials and devices.  For example, new optical materials are desired in order to protect personnel and sensors from intense laser beams.  Many other military and non-military applications, such as laser communications, light-based medical diagnostics and ther ...

    STTR Phase II 2009 Department of DefenseAir Force
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