Energetic Materials Advanced Processing Technologies for Next-Generation Materials
Coordonnateurs : Mezger Mark J., Tindle Kay J., Pantoya Michelle, Groven Lori J., Kalyon Dilhan
This book will take an in-depth look at the technologies, processes, and capabilities to develop and produce "next generation" energetic materials for both commercial and defense applications, including military, mining operations, oil production and well perforation, and construction demolition. It will serve to highlight the critical technologies, latest developments, and the current capability gaps that serve as barriers to military fielding or transition to the commercial marketplace. It will also explain how the processing technologies can be spun out for use in other non-energetics related industries.
Energetic Materials Capabilities in the United States. Science and Research. Prototyping and Development. Production. National Studies and Assessments. Critical Science and Technologies in the Life Cycle of Energetic Materials. Thermodynamic Solubility Modeling of Organic Energetic Materials. Chemical Synthesis and Reaction Schemes. Crystallization of Energetic Particles. Mixing and Coating Operations. Rheological Behavior of Energetic Gels and Suspensions. Continuous Processing and Shaping of Energetic Formulations. Loading, Assembly, and Packout (LAP). New Diagnostic Tools for Characterization of Energetic Materials. Characterizing Energetic Material Reactivity Using Experimental Diagnostics. Printed Energetics: The Path Toward Additive Manufacturing of Munitions. Combined Flame and Solutions Synthesis of Novel Energetic Nanomaterials. The National Technology and Industrial Base of the Future. The Nascent National Energetic Materials Consortium. Integration of U.S. Capabilities and Resources through Public-Private Partnerships. Transition from Laboratory Innovation to Production and Military Fielding. Index.
Date de parution : 08-2017
Ouvrage de 290 p.
15.6x23.4 cm
Thème d’Energetic Materials :
Mots-clés :
Energetic Materials; explosives; Wall Slip; blasting; Kneading Disks; demolition; Twin Screw Extrusion; oil well perforation; Twin Screw Extrusion Process; V; Prakash Reddy; Viscoplastic Fluids; Michael J; Hargather; Twin Screw; Sanjoy K; Bhattacharia; Plane Couette Flow; Nazir Hossain; Apparent Shear Rate; Brandon L; Weeks; Concentrated Suspensions; Chau-Chyun Chen; Maximum Packing Fraction; Paul Redner; Shear Viscosity; Nebahat Degirmenbasi; High Speed Digital Video Cameras; Ralph Schefflan; Mixing Index; Eileen Heider; Rectangular Slit; Steven M; Nicolich; Squeezing Flows; Suphan Kovenklioglu; Wall Slip Velocity; Dilhan M; Kalyon; Energetic Formulation; Brahmananda Pramanik; Primary Explosives; Noah Lieb; Scrum Team; Neha Mehta; Wall Shear Stress; Karl D; Oyler; Slip Velocity; Kimberly Yearick Spangler; Lead Styphnate; Lori J; Groven; Screw Elements; Bahadir Karuv; Lead Azide; Seda Aktas; Jing He; Hansong Tang; Constance M; Murphy; Suzanne E; Prickett; Jonghyun Park; Heng Pan; John M; Centrella; Frank T; Fisher; Nezahat Boz; Moinuddin Malik; David F; Fair; Richard S; Muscato; Michael J; Fair; Magdy Bichay; Jan A; Puszynski; Kay J; Tindle; Daniel Marangoni; Nicholas J; Marangoni; Robert V; Duncan; Anthony M; Dean; Steve Tupper; Ronald J; White; Van Romero; Richard A; Yetter; Stephen D; Tse; Michelle Pantoya