The residual ground-state splitting of acceptors in high- quality silicon has been studied intensely by different experimental techniques for several decades. Recently, photoluminescence studies of isotopically pure silicon revealed the ground-state splitting to result from the random distribution of isotopes in natural silicon. Here we present a new model that explains these surprising experimental results, and discuss the implications for acceptor ground-state splittings observed in other isotopically mixed semiconductors, as well as for the acceptor ground state in semiconductor alloys
The implantation of radioactive isotopes into semiconductor materials is a powerful technique that e...
The deep double donor levels of substitutional chalcogen impurities in silicon have unique optical p...
Semiconductors are prime examples of crystals which can be grown with unprecedented purity, imperfec...
One of the oldest open questions in semiconductor physics is the origin of the small splittings of ...
Karaiskaj et al. [1] showed that the isotopic randomness present in natural Si (natSi) causes a sign...
We report the first high resolution photoluminescence studies of isotopically pure silicon. New inf...
The splitting distribution of the acceptor ground state of Si(B) is determined from the frequency de...
Thermal conductivity measurements of silicon crystals doped with B or In have shown the presence of ...
This thesis presents a calculation of acceptor state energies and wave functions produced by the int...
The temperature dependence of the ratio of LO- to TO-phonon-assisted recombination luminescence of t...
A simple model for absorption of infrared radiation by impurity atoms in silicon crystals has been d...
From ultrasonic resonant absorption over a wide frequency range we have determined the distribution ...
Shallow group-V donors in silicon may be thought of as hydrogenlike, and shallow acceptors are simil...
We have performed high-resolution photoluminescence spectroscopy on silicon crystals with different...
The relation between gold related levels in silicon is studied with deep level transient spectroscop...
The implantation of radioactive isotopes into semiconductor materials is a powerful technique that e...
The deep double donor levels of substitutional chalcogen impurities in silicon have unique optical p...
Semiconductors are prime examples of crystals which can be grown with unprecedented purity, imperfec...
One of the oldest open questions in semiconductor physics is the origin of the small splittings of ...
Karaiskaj et al. [1] showed that the isotopic randomness present in natural Si (natSi) causes a sign...
We report the first high resolution photoluminescence studies of isotopically pure silicon. New inf...
The splitting distribution of the acceptor ground state of Si(B) is determined from the frequency de...
Thermal conductivity measurements of silicon crystals doped with B or In have shown the presence of ...
This thesis presents a calculation of acceptor state energies and wave functions produced by the int...
The temperature dependence of the ratio of LO- to TO-phonon-assisted recombination luminescence of t...
A simple model for absorption of infrared radiation by impurity atoms in silicon crystals has been d...
From ultrasonic resonant absorption over a wide frequency range we have determined the distribution ...
Shallow group-V donors in silicon may be thought of as hydrogenlike, and shallow acceptors are simil...
We have performed high-resolution photoluminescence spectroscopy on silicon crystals with different...
The relation between gold related levels in silicon is studied with deep level transient spectroscop...
The implantation of radioactive isotopes into semiconductor materials is a powerful technique that e...
The deep double donor levels of substitutional chalcogen impurities in silicon have unique optical p...
Semiconductors are prime examples of crystals which can be grown with unprecedented purity, imperfec...