16th JANNAF Combustion Meeting, Naval Postgraduate School, Monterey, California, September 10-14, 1979: Nitramine and solid rocket propellants, ramjets, and liquid bipropellants (unclassifiedChemical Propulsion Information Agency, 1979 - Ordnance |
Contents
3 | |
17 | |
35 | |
51 | |
59 | |
73 | |
83 | |
95 | |
363 | |
385 | |
399 | |
429 | |
451 | |
461 | |
471 | |
487 | |
113 | |
127 | |
153 | |
171 | |
193 | |
225 | |
237 | |
245 | |
257 | |
273 | |
287 | |
305 | |
321 | |
343 | |
511 | |
529 | |
541 | |
557 | |
569 | |
579 | |
605 | |
617 | |
645 | |
657 | |
669 | |
677 | |
685 | |
Common terms and phrases
acoustic admittance ammonium perchlorate amplitude analysis axial mode Ballistic base burning rate behavior binder burner burning rate calculated CARS cavity chamber pressure coefficient combustor composite propellant configuration constant crossflow velocity decreased deflagration density determined diffusion flame effect energy engine enthalpy equation erosive burning evaporation experimental flame temperature formulations frequency fuel gas sampling grain grazing flow HCHO heat Helmholtz resonators HTPB ignition increased injector kcal kpsi laser liquid m/sec mass measurements mechanism melt MICRON nitramine NO₂ nozzle observed obtained orifice oxidizer oxidizer particle parameters PBAN predicted pressure exponent profiles propellant surface Propulsion pyrolysis Raman Raman scattering Ramjet ratio reaction rate regression rates residue resonator restrictor rocket motor scattering shown in Figure shows solid propellant sound particle velocity spectra stability T-burner Table technique thermal decomposition thermocouple tube turbulent values velocity coupling wave