The semiclassical close-coupling description of atomic collisions: Recent developments and results

Fritsch, W.; Lin, C. D.

doi:10.1016/0370-1573(91)90008-a

Cited by 420 publications

(221 citation statements)

References 320 publications

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“…In the collision energy range considered in the present paper (0.1-100 keV/u), the straight-line approximation for the relative nuclear motion R(t) = b + vt (b is the impact parameter and v is the collision velocity) can be safely adopted due to the small binding energy of the 2p electron of Li. The TC-AOCC equations are obtained by expanding the total electron wave function in terms of bound atomic orbitals, multiplied by plane-wave electron translational factors (ETFs) [15] ( r,t) =…”

Section: A Tc-aocc Methodsmentioning

confidence: 99%

Cross sections for electron capture in H+-Li(2pσ,π±) collisions

Liu

Wang

et al. 2011

Phys. Rev. A

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State-selective and total single-electron-capture cross sections in collisions of H + with the excited Li * (2p) atom have been investigated by using the full quantum-mechanical molecular orbital close-coupling (QMOCC) method in the energy range 0.001-3 keV/u and by the two-center atomic orbital close-coupling (TC-AOCC) method in the energy range 0.1-100 keV/u. The present results are also compared with data from other sources when available. It is found that the total and partial electron-capture cross sections are sensitive to the initial p-state charge cloud alignment, particularly in the low-energy region.

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Section: A Tc-aocc Methodsmentioning

confidence: 99%

Cross sections for electron capture in H+-Li(2pσ,π±) collisions

Liu

Wang

et al. 2011

Phys. Rev. A

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“…Tables Table 1: Fit Parameters for Electron-Impact Target Table 3 Fit parameters for proton-impact target excitation cross sections of Na(nl → n l ); n, n = 3 − 5 See page 16 Table 4 (cont.) Fit parameters for proton-impact target excitation cross sections of Na(nl → n l ); n, n = 3 − 5 See page 16 for Explanation of Tables Tables -4 nl Table 5 Fit Parameters for Proton-Impact Target Electron Loss from Na(nl) e -+ Na(4s) → e -+ Na(5s) fit CCC…”

Section: Acknowledgementsmentioning

confidence: 99%

Database for inelastic collisions of sodium atoms with electrons, protons, and multiply charged ions

Igenbergs¹,

Schweinzer²,

Bray³

et al. 2008

Atomic Data and Nuclear Data Tables

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“…Coupled-channel (CC) calculations are the best tool to describe inner-shell ionization and excitation of atoms [26,27] as a function of the impact parameter. These timeconsuming calculations are based on the semiclassical method [34].…”

Section: Coupled-channel Methodsmentioning

confidence: 99%

“…channel method [26,27] to calculate the electronic energy loss for the Si inner-shell electrons. This time-consuming approach takes into account fully the Barkas effect as well as all other higher-order effects for inner-shell electrons.…”

Section: Theoretical Formulationmentioning

confidence: 99%

Electronic energy loss of channeled ions: The giant Barkas effect

et al. 2004

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In this work we have measured the electronic energy loss of 9 Be and 11 B ions for the ͗100͘ and ͗110͘ directions in Si as a function of the incident ion energy. The channeling measurements cover a wide energy range between 100 keV/ amu and 1 MeV/ amu. The Rutherford backscattering technique has been employed in the present experiments. An overall compilation of channeling energy loss values for several ions, including those for He, Li, and O measured previously, provides a clear picture of the Barkas contribution to the stopping power due to valence electrons in the present energy regime. A maximum of the relative contribution occurs for Be ions around 250 keV/ amu while a saturation effect is observed for heavier ions. These results are interpreted in terms of a self-consistent nonlinear calculation based on the transport cross-section approach together with the unitary convolution approximation model, which describe the present data reasonably well at high projectile energies.

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The semiclassical close-coupling description of atomic collisions: Recent developments and results

Cited by 420 publications

References 320 publications

Cross sections for electron capture in H+-Li(2pσ,π±) collisions

Cross sections for electron capture in H+-Li(2pσ,π±) collisions

Database for inelastic collisions of sodium atoms with electrons, protons, and multiply charged ions

Electronic energy loss of channeled ions: The giant Barkas effect

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