Electron capture is a process which garners scientific interest for a number of reasons, ranging from a purely fundamental atomic physics standpoint to more practically oriented interdisciplinary applications, such as in fusion energy research and medical physics. In the present work, single-electron capture by fast projectiles from hydrogen- and helium-like targets is studied by means of the boundary-corrected continuum intermediate states method (BCIS), both in its three-body (BCIS-3B) and four-body (BCIS-4B) formulation. In this thesis, these two methods are developed for single-electron capture from the ground state of the target into arbitrary states of the projectile. General programs are constructed for the calculation of t...
Electron capture processes play an important role in many physical systems, from fusion reactors to ...
Cross sections for electron capture by (^4)He(^2+) ions from ground state atomic hydrogen are presen...
Heavy ion collisions with atomic and molecular targets produce many outcomes. The Schrödinger equat...
The prior form of four-body boundary-corrected first Born (CB1-4B) method is applied to calculate th...
The boundary-corrected continuum intermediate state (BCIS) method is used to compute total cross sec...
The two-centre wave-packet convergent close-coupling approach to ion–atom collisions is extended to ...
Single-electron capture in ground state from several biologically relevant molecules by $${\mathrm{H...
Abstract We present state-selective electron capture cross sections in collision between Be4+ and gr...
I give a complete systematic derivation of a new approximation for the calculation of the cross sect...
Cross section measurements and calculations are presented for electron capture by multiply charged i...
Ionization and electron capture in collisions of bare carbon ions with atomic hydrogen has been stud...
This thesis focuses on how classical mechanics can be used to help determine the collision dynamics ...
The continuum-distorted-wave–Born-initial-state (CDW-BIS) approximation for the description of singl...
A formal treatment of the capture problem is presented and a suitable approximation scheme valid for...
Submitted to J. Phys. BSIGLEAvailable from Bochum Univ. (DE). Sonderforscchungsbereich 162 - Plasmap...
Electron capture processes play an important role in many physical systems, from fusion reactors to ...
Cross sections for electron capture by (^4)He(^2+) ions from ground state atomic hydrogen are presen...
Heavy ion collisions with atomic and molecular targets produce many outcomes. The Schrödinger equat...
The prior form of four-body boundary-corrected first Born (CB1-4B) method is applied to calculate th...
The boundary-corrected continuum intermediate state (BCIS) method is used to compute total cross sec...
The two-centre wave-packet convergent close-coupling approach to ion–atom collisions is extended to ...
Single-electron capture in ground state from several biologically relevant molecules by $${\mathrm{H...
Abstract We present state-selective electron capture cross sections in collision between Be4+ and gr...
I give a complete systematic derivation of a new approximation for the calculation of the cross sect...
Cross section measurements and calculations are presented for electron capture by multiply charged i...
Ionization and electron capture in collisions of bare carbon ions with atomic hydrogen has been stud...
This thesis focuses on how classical mechanics can be used to help determine the collision dynamics ...
The continuum-distorted-wave–Born-initial-state (CDW-BIS) approximation for the description of singl...
A formal treatment of the capture problem is presented and a suitable approximation scheme valid for...
Submitted to J. Phys. BSIGLEAvailable from Bochum Univ. (DE). Sonderforscchungsbereich 162 - Plasmap...
Electron capture processes play an important role in many physical systems, from fusion reactors to ...
Cross sections for electron capture by (^4)He(^2+) ions from ground state atomic hydrogen are presen...
Heavy ion collisions with atomic and molecular targets produce many outcomes. The Schrödinger equat...