Controlling the plasmon resonance frequency of metal nanostructures holds promise for both fundamental and applied research in optics. The plasmon resonance frequency depends on the number of free electrons in the metal. By adding or removing electrons to a metal nano-object, the plasmon resonance frequency shifts. In this study we indirectly change the number of free electrons in gold nanoparticles by applying an electrical potential difference over a heterostructure consisting of a ZnO layer with embedded gold nanoparticles. The potential difference induces shifts of defect energy levels in the ZnO by the electric field. This results in an exchange of electrons between particles and matrix which in turn modifies the gold nanoparticle plas...
This article reports the observation of electrical modulation of localized surface plasmon around se...
One-dimensional zinc oxide (ZnO) nanorods have excellent electron mobility and exhibit great potenti...
Plasmonically active materials have the unique ability to use photons to drive a collective multi-el...
Controlling the plasmon resonance frequency of metal nanostructures holds promise for both fundament...
Characterizing carrier redistribution due to optical field modulation in a plasmonic hot-electron/se...
Electro-optical switching can be achieved by changing the optical absorption of metal nanoparticles ...
The recent discovery that metal nanoparticles can generate hot carriers upon light excitation is see...
Electro-optical switching can be achieved by changing the optical absorption of metal nanoparticles ...
When illuminated with visible light, nanostructured noble metals exhibit a strongplasmon resonance a...
We report on the coupling of ZnO nanoparticles with plasmonic gold nanoislands in a solution-process...
Au-ZnO nanoripples (NRs) were synthesized by using a sol-gel method for utilization as an electron t...
The resonant plasmonic properties of metallic nanostructures depend strongly on charge carrier d. Wh...
Noble metal nanostructures have been widely explored as an effective method to increase photon absor...
This article reports the observation of electrical modulation of localized surface plasmon around se...
One-dimensional zinc oxide (ZnO) nanorods have excellent electron mobility and exhibit great potenti...
Plasmonically active materials have the unique ability to use photons to drive a collective multi-el...
Controlling the plasmon resonance frequency of metal nanostructures holds promise for both fundament...
Characterizing carrier redistribution due to optical field modulation in a plasmonic hot-electron/se...
Electro-optical switching can be achieved by changing the optical absorption of metal nanoparticles ...
The recent discovery that metal nanoparticles can generate hot carriers upon light excitation is see...
Electro-optical switching can be achieved by changing the optical absorption of metal nanoparticles ...
When illuminated with visible light, nanostructured noble metals exhibit a strongplasmon resonance a...
We report on the coupling of ZnO nanoparticles with plasmonic gold nanoislands in a solution-process...
Au-ZnO nanoripples (NRs) were synthesized by using a sol-gel method for utilization as an electron t...
The resonant plasmonic properties of metallic nanostructures depend strongly on charge carrier d. Wh...
Noble metal nanostructures have been widely explored as an effective method to increase photon absor...
This article reports the observation of electrical modulation of localized surface plasmon around se...
One-dimensional zinc oxide (ZnO) nanorods have excellent electron mobility and exhibit great potenti...
Plasmonically active materials have the unique ability to use photons to drive a collective multi-el...