To unveil the mechanisms of energy transfer between Au-N nanostructures and Er3+ ions in silica is of paramount importance for the possible use of Au molecular clusters as sensitizing agents of the rare-earth luminescence in photonic devices. In the present work a phenomenological model was developed that allowed us to estimate the most important photophysical parameters as the sensitization cross-section, the fraction of sensitized Er ions, and the coupling distance of the energy transfer. The results demonstrate that in spite of very large sensitization cross-sections (more than 3 orders of magnitude higher than the intrinsic Er excitation cross-section in silica) only a limited fraction of Er ions (<1%) are indirectly excited by the Au-N...
We present recent results on the occurrence of an Er fluorescence sensitization induced by ultra-sma...
The occurrence of a very efficient non-resonant energy transfer process forming ultrasmall Au–Ag nan...
Silica films co-implanted with Er and Au ions show an enhancement of rare earth photoluminescence af...
To unveil the mechanisms of energy transfer between Au-N nanostructures and Er3+ ions in silica is o...
To unveil the mechanisms of energy transfer between Au-N nanostructures and Er3+ ions in silica is o...
To unveil the mechanisms of energy transfer between Au<sub><i>N</i></sub> nanostructures and Er<sup>...
Sub-nanometric Au nanoclusters are known to act as very efficient sensitizers for the luminescent em...
The sensitization mechanism of Er3+ ions by sub-nanometric Au_N aggregates formed in silica by seque...
Ultra-small molecule-like AuN nanoclusters made by a number of atoms N less than 30 were produced by...
The mechanisms of the Er3+ photoluminescence enhancement induced by ultrasmall Au nanoclusters (made...
The mechanisms of the Er(3+) photoluminescence enhancement induced by ultrasmall Au nanoclusters (ma...
We present recent results on the occurrence of an Er fluorescence sensitization induced by ultra-sma...
The occurrence of a very efficient non-resonant energy transfer process forming ultrasmall Au–Ag nan...
Silica films co-implanted with Er and Au ions show an enhancement of rare earth photoluminescence af...
To unveil the mechanisms of energy transfer between Au-N nanostructures and Er3+ ions in silica is o...
To unveil the mechanisms of energy transfer between Au-N nanostructures and Er3+ ions in silica is o...
To unveil the mechanisms of energy transfer between Au<sub><i>N</i></sub> nanostructures and Er<sup>...
Sub-nanometric Au nanoclusters are known to act as very efficient sensitizers for the luminescent em...
The sensitization mechanism of Er3+ ions by sub-nanometric Au_N aggregates formed in silica by seque...
Ultra-small molecule-like AuN nanoclusters made by a number of atoms N less than 30 were produced by...
The mechanisms of the Er3+ photoluminescence enhancement induced by ultrasmall Au nanoclusters (made...
The mechanisms of the Er(3+) photoluminescence enhancement induced by ultrasmall Au nanoclusters (ma...
We present recent results on the occurrence of an Er fluorescence sensitization induced by ultra-sma...
The occurrence of a very efficient non-resonant energy transfer process forming ultrasmall Au–Ag nan...
Silica films co-implanted with Er and Au ions show an enhancement of rare earth photoluminescence af...