Further measurements of quantum phase noise in a He-Ne laser
Measurement of quantum phase noise in He-Ne lasers
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Measurement of quantum phase noise in He-Ne lasers
Current pushing of oscillation frequency of He-Ne laser
Shifts in oscillation frequency of He-Ne laser variations in dc discharge current
Laser oscillation frequency shift dependence on discharge current in 6328 A He-Ne laser
Temperature dependence of dissociative recombination and molecular ion formation in decaying He, Ne and Ar plasmas in discharge tube energized with capacitor bank
Detection of micron Ne emission line from planetary nebula IC 418 using IR spectrometer
Quantum phase noise in He-Ne laser, considering amplitude fluctuation, spontaneous emission and oscillator linewidth
Upper bounds for electromagnetic transition rates for Ne 20 determined using Hartree-Fock wave functions
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Inelastic scattering of He ions by Ne as function of angle, initial energy and energy loss using collision spectroscopy
Line strength and radiative lifetimes for Ne II determined from spontaneous emission data obtained from CW neon laser discharge
Coupled channel calculation of inelastic proton scattering from Ne 20 using Hartree-Fock wave functions
Ne, Ar, Kr and Xe ionized states transition and level lifetimes from photographically recorded beam foil spectra, discussing particle energies
Lande g factors measurement of excited electronic states in Ne 20 II and III, using alignment of radiating particles in beam foil light source
Isotopic abundances and concentrations of spallogenic Ne, Kr and Xe in Apollo 12 rock 12002, constructing three stage model of irradiation history
The perturbation seen in the experimental differential elastic scattering cross section for the 40 eV He(+) + Ne system was attributed to a single crossing of two intermolecular potential energy curves. A new theoretical treatment of the curve crossing problem, that of Delos and Thorson, is employed to obtain the crossing probabilities and phases associated with the crossing. These are determined by utilizing ab initio potentials involved in the crossing and are further used in a partial wave calculation of the cross section, which is compared with our experiment. The origin of the oscillatory structure observed in the differential cross section is discussed in semiclassical terms by defining the problem in terms of two pseudo-deflection functions. A rainbow effect is shown to be related to a particular feature (a maximum rather than a minimum) of these deflection functions.
The perturbation seen in the experimental differential elastic-scattering cross section for the 40-eV He/+/ + Ne system has been attributed to a single crossing of two intermolecular potential-energy curves. A new theoretical treatment of the curve-crossing problem, namely, that of Delos and Thorson, is employed to obtain the crossing probabilities and phases associated with the crossing. These are determined by utilizing ab initio potentials involved in the crossing and are further used in a partial-wave calculation of the cross section, which is compared with our experiment. The origin of the oscillatory structure observed in the differential cross section is discussed in semiclassical terms by defining the problem in terms of two pseudo-deflection-functions. A rainbow effect is shown to be related to a particular feature (a maximum rather than a minimum) of these deflection functions.