Minimum basis wavefunctions for water
Molecular orbital wave functions for water molecule, using minimum set of Slater orbitals
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Molecular orbital wave functions for water molecule, using minimum set of Slater orbitals
NaLi molecular and ionic electronic states, discussing valence formulation, Hartree-Fock calculations, wave functions, excited state potential, etc
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Coupled channel calculation of inelastic proton scattering from Ne 20 using Hartree-Fock wave functions
Electronic wave functions for atoms from atomic configuration-interaction /CI/ expansion for open shell states
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Motion stability in periodic cubic force field, using nonliner differential equation integration with time periodic square wave function and Jacobian table
Method of moments for determining wave functions used in calculating molecular properties
Determination of density matrix components for multiconfiguration wave functions and Hamiltonian interaction matrices
Volterra equation for coupled channel amplitude densities and modified wave functions
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Nucleus energy spectra projection from Hartree- Fock intrinsic wave functions model space, using coupled orbital matrix elements
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Hartree-Fock energy levels, transition probabilities and wave functions for highly ionized atoms in B I isoelectronic sequences, including spin-orbit interactions
Transition probabilities for Ar I, using Coulomb approximation values of radial wave function integral
The principles of the atomic spectrum theory are used to quantitatively analyze radiation transitions in two-electron helium-like atomic systems. Quantum theoretical methods, describing absorption and emission of a single photon in a radiative transition between two stationary states of an atomic system, reproduced the energy level diagram for the low lying states of helium. Reliable values are obtained from accurate variationally determined two-electron nonrelativistic wave functions for radiative transition probabilities of 2 3p states in the helium isoelectric sequence, and for the 2 1s and 2 3s1 states of the helium sequence.
Positions of the lowest 1,3De autoionization states of He and H(-) below the n = 2 level of the He(+) and H were calculated variationally, using Feshbach's Q-operator formalism. The trial wave function is of the Hylleraas-type with appropriate angular momentum factors. The widths and the shifts of the states have also been calculated. The shifts are found to be positive for all the states calculated here. The results with 112 terms for most states are lower than any previously calculated. The calculated lowest autoionization states of the He and H(-) (relative to the ground states of He and H respectively) are 59.902 eV and 10.1185 eV, in good agreement with the observed values of 59.9 eV and 10.13 + or 0.015 eV.