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Search indexed NASA NTRS and DOE OSTI research on propulsion, heat transfer, battery materials and energy systems. Follow report and document links to the original sources.
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Machine Learning Models for High Explosive Crystal Density and Performance
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An Integrated Experimental and Modeling Approach for Assessing High-Temperature Decomposition Kinetics of Explosives
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An Efficient Subspace Detector for Rayleigh Waves, Demonstrated Against Explosions
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Rayleigh Waveform Detection against Local Distance Explosions
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Leveraging Controlled Atmosphere Methods with Heat Flow Calorimetry for Explosive Compatibility
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Leveraging Controlled Atmosphere Methods with Heat Flow Calorimetry for Explosive Compatibility
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Proof Testing Class 5 GSA-Rated Safes and a Non-Propagating Array for Storage of Small Quantities of Explosives
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Understanding the Detonation of Insensitive High Explosives Through Experiment and Simulation
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Leveraging Controlled Atmosphere Methods with Heat Flow Calorimetry for Explosive Compatibility
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Commonality in Functional Groups on Trace Compounds in High Explosives
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Cutback Experimental Design for Evaluating Small Amounts of High Explosive
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Gasdynamic effects of shock-flame interactions in an explosive gas.
Stationary states produced by shock-flame interaction in detonative gas under constraint of constant cross-sectional area of tube
Shear tests on DuPont explosive rivets with the countersunk head milled flush after expansion
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Detection of explosives, nerve agents, and illicit substances by zero-energy electron attachment
The Reversal Electron Attachment Detection (READ) method, developed at JPL/Caltech, has been used to detect a variety of substances which have electron-attachment resonances at low and intermediate electron energies. In the case of zero-energy resonances, the cross section (hence attachment probability and instrument sensitivity) is mediated by the so-called s-wave phenomenon, in which the cross sections vary as the inverse of the electron velocity. Hence this is, in the limit of zero electron energy or velocity, one of the rare cases in atomic and molecular physics where one carries out detection via infinite cross sections.
Detection of explosives, nerve agents, and illicit substances by zero-energy electron attachment
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Investigating the Explosive Hazard of Liquid Oxygen-Liquefied Natural Gas Rocket Propellant
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Developing All-Atom Models of Organic High Explosive Crystal-Polymer Composites
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