High-temperature viscosities and diffusivities of ionized hydrogen-uranium mixtures.
Ionized H-u mixtures high temperature viscosity and diffusivity calculation method
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Ionized H-u mixtures high temperature viscosity and diffusivity calculation method
Method allows qualitative and quantitative analysis of mixtures of partially deuterated compounds. Nuclear magnetic resonance spectroscopy determines location and amount of deuterium in organic compounds but not fully deuterated compounds. Mass spectroscopy can detect fully deuterated species but not the location.
Fluidic oscillator use as molecular weight sensor for gas mixtures
Minimum electromagnetic field intensity required to ignite hydrogen-air mixture
Physiochemical properties of liquid mixtures of lithium chloride and lithium carbonate
Electron transitions in carbon-hydrogen mixtures
Multiple velocity dispersion in normal hydrogen and normal hydrogen-helium mixtures at room temperature using ultrasonic interferometer
Mixture Mach number defined for collisionless plasma flow about solid body by extending cold-ion theory
Variational calculation of coefficients of viscosity, thermal conductivity, thermal diffusivity and diffusion in binary mixture
Stochastic approximation procedure minimizing mean square error criterion for system identification, estimation and decomposition of mixtures
Ion-molecule reaction kinetics in nitrogen- hydrogen mixtures using ion cyclotron resonance
Simultaneous HCN and HOH laser emission in pulsed discharge through mixture containing H, C, N and O
Nucleate boiling burnout heat flux data for ethane, ethylene and ethane-ethylene mixtures at various pressures, discussing applicability of Noyes equations
Thermal diffusion coefficient for fully ionized plasma containing mixture of arbitrary charge ions in topside ionosphere
Ultrasonic‐velocity dispersion measurements have been performed in parahydrogen and its mixtures with helium, neon, and argon, all at 300°K. In each case the experimental dispersion curves can be matched successfully to those calculated under the assumption that the 0–2 rotational transition relaxes separately from the 2–4 and higher‐order terms. For pure pH 2 we find a relaxation time 𝜏 20 of 1.30 × 10 −8 sec for the 2 → 0 transition and a 𝜏 42 of 3.90 × 10 −8 sec for the 4 → 2 transition. Comparison with the quantum‐mechanical theories of Roberts and of Davison for H 2 –H 2 collisions using Morse potentials shows good agreement for 𝜏 20 over the temperature range of 75°–300°K. The Morse‐potential asymmetry parameter yielding the best fit is β = 0.113 for Roberts' calculation and 0.108 for Davison's. It is found that He–pH 2 collisions are more effective than pH 2 –pH 2 in producing the J = 0 to J = 2 transition, but less effective for higher‐order transitions. Collisions of neon with pH 2 are found to be more effective at room temperature for inducing the 0 → 2 and 2 → 4 transitions than either helium or argon.
Waveforms analyzer for mixtures of exponentially damped sine waves, noting application to interferometer curves in plasma wave propagation
Interphase momentum transfer during propagation of infinitesimal pressure pulse through bubbly flow two phase mixture
Boltzmann equation for gas mixtures solved by perturbation expansion techniques for transport coefficients