The acoustic dispersion of plasmons (PLs) in narrow (4 nm) and ultrathin (one unit cell) metallic DySi2 wires, grown by self-assembly on vicinal Si(100)-[011] 4° turns out to be unidirectional. We observed the lowest intersubband PL as well as the acoustic PL. These PLs are specific for narrow metallic strips of finite width. Our experimental and theoretical analysis suggests that only one of two electron pockets in the surface Brillouin zone makes a substantial contribution to the PLs because the other pocket has a much smaller conductive character due to a strong admixture of electronic states with d character. © 2010 The American Physical Society
Metallic nanoscale voids can support both localized and propagating plasmons and form plasmonic crys...
An interesting way to investigate the properties of porous Si is to look at its plasmons. The reason...
Recently, a low-energy collective excitation has been predicted to exist at metal surfaces where a q...
Plasmons in low-dimensional systems respresent an important tool for coupling energy into nanostruc...
Dimensional crossover is of high relevance to understanding real-world quasi-one-dimensional (1D) sy...
The plasmon dispersion in arrays of nanowires of Pb close to an average Pb coverage of one monolayer...
We generated arrays of silver wires with a height of 1 atom and an average width of 11 atoms on the ...
Plasmons depend strongly on dimensionality: while plasmons in three-dimensional systems start with f...
Nearly two-dimensional (2D) metallic systems formed in charge inversion layers and artificial layere...
Nearly two-dimensional (2D) metallic systems formed in charge inversion layers(1) and artificial lay...
Plasmons depend strongly on dimensionality: while plasmons in three-dimensional systems start with f...
Plasmons depend strongly on dimensionality: while plasmons in three-dimensional systems start with f...
The linear dispersion of the low-dimensional acoustic surface plasmon (ASP) opens perspectives in en...
An interesting way to investigate the properties of porous Si is to look at its plasmons. The reason...
We have measured one-dimensional (1D) plasmons in an atom wire array on the Si(557)-Au surface by in...
Metallic nanoscale voids can support both localized and propagating plasmons and form plasmonic crys...
An interesting way to investigate the properties of porous Si is to look at its plasmons. The reason...
Recently, a low-energy collective excitation has been predicted to exist at metal surfaces where a q...
Plasmons in low-dimensional systems respresent an important tool for coupling energy into nanostruc...
Dimensional crossover is of high relevance to understanding real-world quasi-one-dimensional (1D) sy...
The plasmon dispersion in arrays of nanowires of Pb close to an average Pb coverage of one monolayer...
We generated arrays of silver wires with a height of 1 atom and an average width of 11 atoms on the ...
Plasmons depend strongly on dimensionality: while plasmons in three-dimensional systems start with f...
Nearly two-dimensional (2D) metallic systems formed in charge inversion layers and artificial layere...
Nearly two-dimensional (2D) metallic systems formed in charge inversion layers(1) and artificial lay...
Plasmons depend strongly on dimensionality: while plasmons in three-dimensional systems start with f...
Plasmons depend strongly on dimensionality: while plasmons in three-dimensional systems start with f...
The linear dispersion of the low-dimensional acoustic surface plasmon (ASP) opens perspectives in en...
An interesting way to investigate the properties of porous Si is to look at its plasmons. The reason...
We have measured one-dimensional (1D) plasmons in an atom wire array on the Si(557)-Au surface by in...
Metallic nanoscale voids can support both localized and propagating plasmons and form plasmonic crys...
An interesting way to investigate the properties of porous Si is to look at its plasmons. The reason...
Recently, a low-energy collective excitation has been predicted to exist at metal surfaces where a q...