Highly confined surface plasmons on graphene attract substantial interest as potential information carriers for highly integrated photonic data processing circuits. However, plasmon losses remain the main obstacle for implementation of such devices. In near-field microscopic experiments performed at the wavelength of 10µm we show that a substantial reduction of plasmon damping can be achieved by placing a nanometric polymer nano-dots spacer between the graphene layer and the supporting silicon oxide slab making graphene quasi-suspended. We argue that reduction of plasmon losses is attributed to weaker coupling with substrate phonons in the quasi-suspended graphene
We point out that plasmons in doped graphene simultaneously enable low-losses and significant wave l...
We experimentally demonstrated graphene plasmon resonant absorption in mid-IR by utilizing an array ...
| openaire: EC/H2020/820423/EU//S2QUIP | openaire: EC/H2020/834742/EU//ATOP | openaire: EC/H2020/965...
Highly confined surface plasmons on graphene attract substantial interest as potential information c...
Highly confined surface plasmons on graphene attract substantial interest as potential information c...
Plasmon is the quantum of the collective oscillation of electrons. How plasmon loses its energy (or ...
Plasmonics takes advantage of the collective response of electrons to electromagnetic waves, enablin...
Surface plasmons in graphene have many promising properties, such as high confinement, low losses, a...
Graphene physics and plasmonics are two fields which, once combined, promise a variety of exciting ...
Graphene is used as the thinnest possible spacer between gold nanoparticles and a gold substrate. Th...
Graphene is used as the thinnest possible spacer between gold nanoparticles and a gold substrate. Th...
Graphene physics and plasmonics are two fields which, once combined, promise a variety of exciting ...
Surface plasmons in graphene have many promising properties, such as high confinement, low losses, a...
ABSTRACT: Graphene is used as the thinnest possible spacer between gold nanoparticles and a gold sub...
International audienceGraphene physics and plasmonics are two fields which, once combined, promise a...
We point out that plasmons in doped graphene simultaneously enable low-losses and significant wave l...
We experimentally demonstrated graphene plasmon resonant absorption in mid-IR by utilizing an array ...
| openaire: EC/H2020/820423/EU//S2QUIP | openaire: EC/H2020/834742/EU//ATOP | openaire: EC/H2020/965...
Highly confined surface plasmons on graphene attract substantial interest as potential information c...
Highly confined surface plasmons on graphene attract substantial interest as potential information c...
Plasmon is the quantum of the collective oscillation of electrons. How plasmon loses its energy (or ...
Plasmonics takes advantage of the collective response of electrons to electromagnetic waves, enablin...
Surface plasmons in graphene have many promising properties, such as high confinement, low losses, a...
Graphene physics and plasmonics are two fields which, once combined, promise a variety of exciting ...
Graphene is used as the thinnest possible spacer between gold nanoparticles and a gold substrate. Th...
Graphene is used as the thinnest possible spacer between gold nanoparticles and a gold substrate. Th...
Graphene physics and plasmonics are two fields which, once combined, promise a variety of exciting ...
Surface plasmons in graphene have many promising properties, such as high confinement, low losses, a...
ABSTRACT: Graphene is used as the thinnest possible spacer between gold nanoparticles and a gold sub...
International audienceGraphene physics and plasmonics are two fields which, once combined, promise a...
We point out that plasmons in doped graphene simultaneously enable low-losses and significant wave l...
We experimentally demonstrated graphene plasmon resonant absorption in mid-IR by utilizing an array ...
| openaire: EC/H2020/820423/EU//S2QUIP | openaire: EC/H2020/834742/EU//ATOP | openaire: EC/H2020/965...