Computer modeling of rocket engine ignition transients Final report
Computer modeling of rocket engine ignition transients
Engineering topics
Publications and source records attributed to Breen, B. P..
Computer modeling of rocket engine ignition transients
Theoretical analysis of ignition mechanisms and quantitative analysis of vapor phase reaction products of dimethylhydrazines with nitrogen dioxide
Engine design and operating parameters studied for effects on rocket engine ignition and popping
Combustion stability in rocket engines affected by pressure disturbances
Ignition mechanism of hydrazine-nitrogen dioxide hypergolic propellant system
Mechanism and design parameter effects in stream mixing and separation of nitrogen tetroxide-hydrazine impingement
Liquid hydrazine ignition by nitrogen tetroxide gas based on stagnation flow principle, presenting threshold measurements
Combustion instability prediction using nonlinear bipropellant vaporization model
Effect of additives on hydrazine nitrogen trioxide droplet flame structure and burning rate
Physical and chemical conditions in rocket combustion chamber during starting transients and steady operation described by mathematical model intended for parametric studies
Flame structure of hydrazine droplet burning in nitrogen tetroxide vapor
Analytical model for describing combustion chamber disturbances during start transient and steady state operations of hypergolic liquid rocket engines
Additives effect on ignition delay and pressure of hypergolic hydrazine-nitrogen tetroxide propellant systems.
Flame structure of hydrazine burning in oxidizing atmosphere determined by measuring temperature and specific contractions at 90 degrees from stagnation point