We present first results concerning stable formation of primary electronic defects and lithium nanometer sized clusters in LiF thin films grown by ion-assisted thermal deposition. The optical and morphological properties of the as grown LiF films, dependent on the deposition conditions, such as ion-beam energy and ion species (Xe, Ar), are reported. The experimental results show a larger efficiency of low-energy Xe ions in inducing the formation of lithium nano-clusters. To analyse the role of the deposition conditions, a preliminary interpretation of the lithium nano-cluster formation mechanism based on the spherical and/or cylindrical spike thermal model is given. (C) 2003 Elsevier B.V. All rights reserved
He+ ions with an energy of 1.5 -2 MeV and doses ranging from 6 ´ 1013 to 2.5 ´ 1016 ions/cm2 were us...
In the thickness range 50-500 nm at substrate temperatures of 300, 375 and 575 K the structures of p...
Proton beams of 3 MeV energy, produced by the injector of a linear accelerator for proton therapy, w...
We present first results concerning stable formation of primary electronic defects and lithium nanom...
Various kinds of ionising radiation can be utilised to produce primary F centres (anion vacancies oc...
Lithium fluoride (LiF) films have been prepared on LaAlO3 (LAO), MgO, Si and TiN buffered Si substra...
We present results on simultaneous nanostructuring and optical activation of lithium fluoride crysta...
Among insulating materials containing point defects, lithium fluoride (LiF) is a radiation-sensitive...
The production of positive lithium ions using a lithium-fluoride-coated stainless steel anode in the...
Beams of 2.0 MeV nitrogen ions, produced by a Van de Graaff generator, were used in order to create ...
The measured room-temperature absorption spectra of LiF crystals implanted with 1.5 MeV He+ ions at ...
Single crystals of lithium fluoride were irradiated with various species of heavy ions in the energy...
In many materials electronic excitations created around the trajectories of swift ions result in def...
Ion beam induced luminescence (IBIL) spectra of pure LiF under irradiation by a 2 MeV proton beam we...
He+ ions with an energy of 1.5 -2 MeV and doses ranging from 6 ´ 1013 to 2.5 ´ 1016 ions/cm2 were us...
He+ ions with an energy of 1.5 -2 MeV and doses ranging from 6 ´ 1013 to 2.5 ´ 1016 ions/cm2 were us...
In the thickness range 50-500 nm at substrate temperatures of 300, 375 and 575 K the structures of p...
Proton beams of 3 MeV energy, produced by the injector of a linear accelerator for proton therapy, w...
We present first results concerning stable formation of primary electronic defects and lithium nanom...
Various kinds of ionising radiation can be utilised to produce primary F centres (anion vacancies oc...
Lithium fluoride (LiF) films have been prepared on LaAlO3 (LAO), MgO, Si and TiN buffered Si substra...
We present results on simultaneous nanostructuring and optical activation of lithium fluoride crysta...
Among insulating materials containing point defects, lithium fluoride (LiF) is a radiation-sensitive...
The production of positive lithium ions using a lithium-fluoride-coated stainless steel anode in the...
Beams of 2.0 MeV nitrogen ions, produced by a Van de Graaff generator, were used in order to create ...
The measured room-temperature absorption spectra of LiF crystals implanted with 1.5 MeV He+ ions at ...
Single crystals of lithium fluoride were irradiated with various species of heavy ions in the energy...
In many materials electronic excitations created around the trajectories of swift ions result in def...
Ion beam induced luminescence (IBIL) spectra of pure LiF under irradiation by a 2 MeV proton beam we...
He+ ions with an energy of 1.5 -2 MeV and doses ranging from 6 ´ 1013 to 2.5 ´ 1016 ions/cm2 were us...
He+ ions with an energy of 1.5 -2 MeV and doses ranging from 6 ´ 1013 to 2.5 ´ 1016 ions/cm2 were us...
In the thickness range 50-500 nm at substrate temperatures of 300, 375 and 575 K the structures of p...
Proton beams of 3 MeV energy, produced by the injector of a linear accelerator for proton therapy, w...