We apply the convergent close-coupling (CCC) formalism to single-photon two-electron ionization of the lithium atom in its ground state. We treat this reaction as single-electron photon absorption followed by inelastic scattering of the photoelectron on a heliumlike Li+ ion. The latter scattering process can be described accurately within the CCC formalism. We obtain integrated cross sections of single photoionization leading to the ground and various excited states of the Li+ ion as well as double photoionization extending continuously from the threshold to the asymptotic limit of infinite photon energy. Comparison with available experimental and theoretical data validates the CCC model
The convergent close-coupling method for atomic photoionization is modified by treating the singular...
Direct ionization of ground-state Li+(1s2 1S0) and metastable Li+(1s2s 3S1) ions by electron impact ...
Using a dual laser plasma technique we have measured for the first time the photoabsorption spectrum...
We review recent theoretical results on the double photoionization and ionization with excitation of...
We review recent theoretical results on the double photoionization and ionization with excitation of...
We apply the convergent close-coupling (CCC) and time-dependent close- coupling (TDCC) methods to de...
We extend our previous application of the convergent close-coupling (CCC) and time-dependent close-c...
The cross sections of the 18 electron photoionization and corresponding shake-up processes for Li at...
We apply the nonperturbative convergent close-coupling (CCC) and time-dependent close coupling (TDCC...
We apply the convergent close-coupling (CCC) formalism to the problem of two-photon double ionizatio...
In this work the first differential studies on two- and three-photon double ionization (DI) of lithi...
The total cross section for double ionization of lithiumlike ions by a high-energy photon is calcula...
We present total, energy-sharing and triple differential cross sections for one-photon, double ioniz...
We review recent applications of the convergent close-coupling (CCC) method to studies of two-photon...
Formulating a quasiclassical approach we determine the cross section for the complete four-body brea...
The convergent close-coupling method for atomic photoionization is modified by treating the singular...
Direct ionization of ground-state Li+(1s2 1S0) and metastable Li+(1s2s 3S1) ions by electron impact ...
Using a dual laser plasma technique we have measured for the first time the photoabsorption spectrum...
We review recent theoretical results on the double photoionization and ionization with excitation of...
We review recent theoretical results on the double photoionization and ionization with excitation of...
We apply the convergent close-coupling (CCC) and time-dependent close- coupling (TDCC) methods to de...
We extend our previous application of the convergent close-coupling (CCC) and time-dependent close-c...
The cross sections of the 18 electron photoionization and corresponding shake-up processes for Li at...
We apply the nonperturbative convergent close-coupling (CCC) and time-dependent close coupling (TDCC...
We apply the convergent close-coupling (CCC) formalism to the problem of two-photon double ionizatio...
In this work the first differential studies on two- and three-photon double ionization (DI) of lithi...
The total cross section for double ionization of lithiumlike ions by a high-energy photon is calcula...
We present total, energy-sharing and triple differential cross sections for one-photon, double ioniz...
We review recent applications of the convergent close-coupling (CCC) method to studies of two-photon...
Formulating a quasiclassical approach we determine the cross section for the complete four-body brea...
The convergent close-coupling method for atomic photoionization is modified by treating the singular...
Direct ionization of ground-state Li+(1s2 1S0) and metastable Li+(1s2s 3S1) ions by electron impact ...
Using a dual laser plasma technique we have measured for the first time the photoabsorption spectrum...