Deep UV Resonance Raman Wide Field Imaging, Laser Induced Fluorescence and Photochemical Methodologies for Detection and Neutralization of Explosives
Abstract
1. Determine Mechanism of NH4NO3 Photochemistry. Effort 15%.2. Determination of Photochemical Gas Phase Products of PETN and Other Explosives.Effort 10%3. Determination of UVRR or SVLF Emission Mechanism of Photogenerated Gas PhaseSpecies. Effort 10%.4. Simultaneous UVRR of Solid Explosives and Gas Phase Photoproducts. Effort 10%.5. Demonstration of Immense Photoacoustic Response from Explosive~s PhotochemicalGas Generation. Effort 20%.6. Revolutionary Orthogonal Detection of UVRR/SVLF and Photochemical-acousticSpectroscopy. Effort 10%.7. Synthesis of Monodisperse (SD=3%) SiO2 Particles. Effort 5%.8. Novel Self-Assembly Highly Ordered FCC Photonic Crystals. Effort 5%.9. Demonstration of High Sensitivity Wide Area Standoff Explosive Detection. Effort 5%.10. Demonstration of Enhanced Explosives Thermal Degradation and Neutralization. Effort10%.
Document Details
- Document Type
- DoD Grant Award
- Publication Date
- Sep 23, 2016
- Source ID
- N000141612681
Entities
People
- Sanford A Asher
Organizations
- Office of Naval Research
- United States Navy
- University of Pittsburgh