Positron annihilation spectroscopy is particularly suitable for studying vacancy-type defects in semiconductors. Combining state-of-the-art experimental and theoretical methods allows for detailed identification of the defects and their chemical surroundings. Also charge states and defect levels in the band gap are accessible. In this review the main experimental and theoretical analysis techniques are described. The usage of these methods is illustrated through examples in technologically important elemental and compound semiconductors. Future challenges include the analysis of noncrystalline materials and of transient defect-related phenomena.Peer reviewe
The basic principles of positron annihilation physics are briefly discussed and the three most impor...
The application of positron annihilation spectroscopy to the study of defects in materials is illust...
The basic principles of positron annihilation physics are briefly discussed and the three most impor...
Positron annihilation spectroscopy is particularly suitable for studying vacancy-type defects in sem...
Positron annihilation spectroscopy is particularly suitable for studying vacancy-type defects in sem...
Positron Annihilation Spectroscopy (PAS) is a sensitive probe for studying the electronic structure ...
Three topical materials systems are discussed from the point of view of point defect characterizatio...
Three topical materials systems are discussed from the point of view of point defect characterizatio...
AbstractIntrinsic point defects exist in all semiconducting materials. Their identification and meas...
Positron annihilation (PA) is a sensitive technique for detection of vacancy-type defects in crystal...
At a vacant lattice cell positron-ion repulsion is reduced leading to positron trapping. This causes...
At a vacant lattice cell positron-ion repulsion is reduced leading to positron trapping. This causes...
Various point defects in silicon are studied theoretically from the point view of positron annihilat...
Various point defects in silicon are studied theoretically from the point view of positron annihilat...
The basic principles of positron annihilation physics are briefly discussed and the three most impor...
The basic principles of positron annihilation physics are briefly discussed and the three most impor...
The application of positron annihilation spectroscopy to the study of defects in materials is illust...
The basic principles of positron annihilation physics are briefly discussed and the three most impor...
Positron annihilation spectroscopy is particularly suitable for studying vacancy-type defects in sem...
Positron annihilation spectroscopy is particularly suitable for studying vacancy-type defects in sem...
Positron Annihilation Spectroscopy (PAS) is a sensitive probe for studying the electronic structure ...
Three topical materials systems are discussed from the point of view of point defect characterizatio...
Three topical materials systems are discussed from the point of view of point defect characterizatio...
AbstractIntrinsic point defects exist in all semiconducting materials. Their identification and meas...
Positron annihilation (PA) is a sensitive technique for detection of vacancy-type defects in crystal...
At a vacant lattice cell positron-ion repulsion is reduced leading to positron trapping. This causes...
At a vacant lattice cell positron-ion repulsion is reduced leading to positron trapping. This causes...
Various point defects in silicon are studied theoretically from the point view of positron annihilat...
Various point defects in silicon are studied theoretically from the point view of positron annihilat...
The basic principles of positron annihilation physics are briefly discussed and the three most impor...
The basic principles of positron annihilation physics are briefly discussed and the three most impor...
The application of positron annihilation spectroscopy to the study of defects in materials is illust...
The basic principles of positron annihilation physics are briefly discussed and the three most impor...