International audienceLow temperature (675 °C) epitaxial in situ doped Si layers (As, 1.5 at. %) were analyzed by atom probe tomography (APT) to study clustering in a highly arsenic-doped silicon layer. The spatial distribution of As atoms in this layer was obtained by APT, and the distance distribution between first nearest neighbors between As atoms was studied. The result shows that the distribution of As atoms is nonhomogeneous, indicating clustering. Those clusters, homogeneously distributed in the volume, are found to be very small (a few atoms) with a high number density and contain more than 60% of the total number of As atoms. \textcopyright 2009 American Institute of Physics
Previous work on thermally induced arsenic deactivation in highly doped silicon has proven the gener...
The time dependent deactivation of RTA-activated arsenic-doped samples was studied for chemical conc...
Arsenic doping from arsine during Si gas source molecular beam epitaxy (GSMBE) has been investigated...
International audienceLow temperature (675 °C) epitaxial in situ doped Si layers (As, 1.5 at. %) wer...
International audienceIn this contribution, we report on the Si atoms spatial distribution via Atom ...
International audienceThe role of atom probe tomography in the investigation of clustering and segre...
In this paper atom probe tomography is used to explore early stage clustering in aluminum alloys. Tw...
The transient enhanced diffusion (TED) of As in silicon samples implanted at 35 keV with dose 5*1015...
Dopant loss due to the segregation and dopant pile up at the Si/SiO2 interface are crucial phenomena...
Small angle x-ray scattering measurements were performed on arsenic-implanted laser-annealed silicon...
The understanding of the behavior of arsenic in highly doped near surface silicon layers is of cruci...
The behavior of ultra shallow ion implants of arsenic in Si following solid phase epitaxial re-growt...
International audienceIn this study, we have performed nanoscale characterization of Si-clusters and...
Early stages of cluster formation in anAl Si Mg alloy were investigated by atom probe tomography and...
Electrical deactivation of arsenic in highly doped silicon has been studied using the positron-beam ...
Previous work on thermally induced arsenic deactivation in highly doped silicon has proven the gener...
The time dependent deactivation of RTA-activated arsenic-doped samples was studied for chemical conc...
Arsenic doping from arsine during Si gas source molecular beam epitaxy (GSMBE) has been investigated...
International audienceLow temperature (675 °C) epitaxial in situ doped Si layers (As, 1.5 at. %) wer...
International audienceIn this contribution, we report on the Si atoms spatial distribution via Atom ...
International audienceThe role of atom probe tomography in the investigation of clustering and segre...
In this paper atom probe tomography is used to explore early stage clustering in aluminum alloys. Tw...
The transient enhanced diffusion (TED) of As in silicon samples implanted at 35 keV with dose 5*1015...
Dopant loss due to the segregation and dopant pile up at the Si/SiO2 interface are crucial phenomena...
Small angle x-ray scattering measurements were performed on arsenic-implanted laser-annealed silicon...
The understanding of the behavior of arsenic in highly doped near surface silicon layers is of cruci...
The behavior of ultra shallow ion implants of arsenic in Si following solid phase epitaxial re-growt...
International audienceIn this study, we have performed nanoscale characterization of Si-clusters and...
Early stages of cluster formation in anAl Si Mg alloy were investigated by atom probe tomography and...
Electrical deactivation of arsenic in highly doped silicon has been studied using the positron-beam ...
Previous work on thermally induced arsenic deactivation in highly doped silicon has proven the gener...
The time dependent deactivation of RTA-activated arsenic-doped samples was studied for chemical conc...
Arsenic doping from arsine during Si gas source molecular beam epitaxy (GSMBE) has been investigated...