Award Data

Luna Innovations collaborating with the University of New Mexico will determine the feasibility of developing a light weight handheld multi-enzyme sensor device that is capable of detecting a wide array of water contaminants, toxic industrial chemicals (TICs). The proposed multi-enzyme electrode technology will provide significant improvements in sensitivity, operational stability, and shelf li ...

To address the Army"s requirement for Low-Cost Chaos-based Radar solution, TechFlow Scientific and the University of New Mexico will design, develop, and test a prototype chaos based radar employing a coherent receiver with a matched filter. In Phase-I, we will perform a careful design study of the chaos-radar system components. We will develop robust technical solutions such as the use of Titaniu ...

Without a deep understanding of causes, context, and meaning of the events they observe, Warfighters are unable to reliably develop or execute effective courses of action. Unfortunately, traditional methods of accessing this information require significant effort searching large volumes of unstructured text from varied open sources. Advanced methods for coping with this problem face several challe ...

"Barron Associates, Inc. proposes to develop the Rugged Automated Training (RAT) system, a cost-effective, rugged, automated environment to train and deploy small animals to detect landmines and other compounds of interest, and to evaluate their performance. The RAT system will train animals to recognize odorants using standard Pavlovian conditioning procedures in specialized, automated opera ...

Beginning from an advanced stage of development, this Phase I STTR project will produce designs and prototypes for a ricin-specific artificial antibody constructed using DNA origami. These novel constructs will provide both a capture function (mimicking the properties of an antibody) and intrinsic electro-optical reporting functionality, a significant improvement over current antibody capability. ...

In this collaborative STTR project between Vibratess LLC and UVA, we intent to conduct a combined theoretical and experimental study of plasmonic architectures for utilization with biological and chemical sensing in the THz spectral range. Plasmon Polariton (SSPP) devices that utilize metamaterials constructed of a conductor with sub-wavelength periodic structural features on it surface can tailor ...

Beginning from an advanced stage of development, this Phase I SBIR project will produce design automation software for creating DNA nanostructures for a wide variety of applications, remedying a deficit that has stymied advancement in this promising field. Building atop an established grid computing platform, the software will combine a robust, easy-to-use, CAD (computer-aided design) interface, ...

In response to the need, in forward areas, of assessing the likelihood of a mTBI having occurred, the objective of this project is the development of the CBIAS computerized assessment system that will be able to make this determination on the basis of the functioning of the II, III, IV, VI, and VIII cranial nerves. They provide the opportunity to obtain a sensitive and quantitative evaluation of t ...

US forces are increasingly involved in asymmetric warfare, peacekeeping and humanitarian assistance missions. These scenarios can place soldiers in direct contact with harmful biological and chemical warfare organisms and agents, toxic industrial chemicals, and explosives. Current portable sensor technology solutions rely on visible and near-IR Raman or fluorescence spectroscopy. A portable sen ...

The overall objective of this program is to enable low-cost production of high performance visible, IR and bispectral obscurants for improved ground force stealth and protection across the Armed Forces. In order to realize this goal, NanoSonic and Virginia Tech will build on promising Phase I results to investigate synthetic and processing approaches, optimize materials synthesis and processing, ...