Methods of quadrature for Euler transform integrals.
Bilinear expansions treating Euler transform of special integrand, reviewing properties of Jacobi function for application in quantum mechanics or plasma physics
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Bilinear expansions treating Euler transform of special integrand, reviewing properties of Jacobi function for application in quantum mechanics or plasma physics
Quantum mechanics and statistical mechanics applied to solution of biological and chemical problems - chemical bonding, resonance, spin, and transport phenomena
Photoelectron counting statistics produced by fully quantum mechanical laser
Quantum mechanical treatment of N and CO molecules, RKR Franck-Condon factors for gamma and beta band systems of NO, and wave functions and energy curves of LiH and BH
Electron impact broadening in isolated lines from ions explained by quantum mechanics
Atomic hydrogen-bromine linear collision reaction intermediate formation and reactive scattering cross sections quantum mechanical calculation, using perturbed Morse oscillator approximation
Delta functions use in extending domain of Laplacian operator in quantum mechanics
Interstellar extinction models of classical Mie particles and quantum mechanical polycyclic aromatic molecules
Electronegativity and work function relationship from thermodynamic and quantum mechanics standpoint, describing electrons structure by spin orbitals localized around lattice sites
Quantum mechanics method for obtaining photocount distribution from optical maser photoelectron counting statistics
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.
Quantum mechanical systems dynamics in diagonal coherent state representation, discussing applications
Molecular theory, quantum mechanics, transport properties, perturbation theory, and related research
Methods for direct calculation of reduced density matrices in formulating atomic and molecular quantum mechanics
Quantum mechanical inverse problem of elastic scattering theory, discussing Hylleraas solution for determining potential energy function from phase shift
Simultaneity in optical photon pairs parametric production, verifying quantum mechanical description of fluorescence
Quantum mechanics of line broadening effects in solar simulator mercury xenon arc lamp spectra
Quantum mechanical reactive cross sections reported for three dimensional angle dependent model surface