Chemical reactivity of hydrogen, nitrogen, and oxygen atoms at temperatures below 100 deg K Final technical report, 1 Dec. 1962 - 31 Dec. 1965
Chemical reactivity of atomic hydrogen, nitrogen, and oxygen at cryogenic temperatures
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Chemical reactivity of atomic hydrogen, nitrogen, and oxygen at cryogenic temperatures
Chemical reactivity of hydrogen, nitrogen, and oxygen atoms at temperatures below 100 deg K
Integrals and methods for calculation of counter-reaction to reactivity from expansion and distortions of components and structural elements of fast reactors
Determination of reactivities using pulsed neutron techniques for highly subcritical solution reactors
Crossed molecular beam kinetics of reactive asymmetry of oriented methyl iodide polar molecules reacting with rubidium
Reactivity effects caused by radial power flattening in gas cooled, fast-spectrum reactor
Reactivity insertions in compact reactor cores due to fuel movement
Reactivity control of fast nuclear reactors containing yttrium hydride moderating zones
Reactivities determined from pulsed neutron techniques for highly subcritical solution reactors
Effective resonance integrals for separated tungsten isotopes and natural W and Au determined from epicadmium reactivity measurements
Methyl iodide reacted with Rb measured for reactive asymmetry as function of scattering angle and degree of alignment
Study of chemical reactivity mechanism of nitrogen tetroxide with titanium alloys
Launch vehicle material reactivity with liquid oxygen using impact tests and hot-wire methods
Reactivity of launch vehicle organic materials with liquid oxygen
Energy distribution among products of reactive collision of atomic H with Br molecule yielding HBr and Br atom, using perturbed Morse oscillator approximation
Safety planning for use of reactive cryogens in large volume, noting FLOX and liquid fluorine
Angular distribution of reactive elastic scattering analyzed by opacity function /reaction probability/
Atomic hydrogen-bromine linear collision reaction intermediate formation and reactive scattering cross sections quantum mechanical calculation, using perturbed Morse oscillator approximation