International audienceWe present a semiconductor-based approach to compensate plasmonic losses. The core idea is to employ an electrically pumped laser diode and to overlap its active region with the evanescent field of a surface plasmon wave. In order to keep the losses at a manageable level, we rely on hybrid waveguide modes stemming from the coupling of a dielectric and a plasmonic mode. The laser device we demonstrate operates--at telecom wavelengths--on such a hybrid plasmonic mode. The device operates by electrical injection at room temperature. The near-field imaging of the laser facet provides evidence of the stimulated emission into the hybrid mode and confirms the prediction of the numerical simulation
Plasmonic lasers generate strongly confined electromagnetic fields over a narrow range of wavelength...
As miniaturized light sources of size beyond the optical diffraction limit, surface plasmon lasers a...
We demonstrate lasing in Metal-Insulator-Metal (MIM) waveguides filled with electrically pumped semi...
In this Letter, we report on the design criteria of plasmonic nano-lasers based on hybrid waveguides...
The field of plasmonics is experiencing a rapid development, due to the interest in studying the beha...
Laser science has been successful in producing increasingly high-powered, faster and smaller coheren...
A plasmonic laser structure coupled to a dielectric waveguide is proposed and investigated by rigoro...
Laser science has tackled physical limitations to achieve higher power, faster and smaller light sou...
Hybridization of surface-plasmon and dielectric waveguide whispering-gallery modes are demonstrated ...
There has been a growing interest in the field of optoelectronics for sub-wavelength lasers due to a...
We report the theoretical investigation of an electrically injected plasmonic nanolaser in visible r...
Abstract"Physics of Optoelectronic and Plasmonic Devices: Cavities, Waveguides, Modulators and Laser...
We investigate electrically pumped, distributed feedback (DFB) lasers, based on gap-plasmon mode met...
Plasmonic lasers generate strongly confined electromagnetic fields over a narrow range of wavelength...
Unlike conventional dielectric photonic structures, metal coated or plasmonic structures can confine...
Plasmonic lasers generate strongly confined electromagnetic fields over a narrow range of wavelength...
As miniaturized light sources of size beyond the optical diffraction limit, surface plasmon lasers a...
We demonstrate lasing in Metal-Insulator-Metal (MIM) waveguides filled with electrically pumped semi...
In this Letter, we report on the design criteria of plasmonic nano-lasers based on hybrid waveguides...
The field of plasmonics is experiencing a rapid development, due to the interest in studying the beha...
Laser science has been successful in producing increasingly high-powered, faster and smaller coheren...
A plasmonic laser structure coupled to a dielectric waveguide is proposed and investigated by rigoro...
Laser science has tackled physical limitations to achieve higher power, faster and smaller light sou...
Hybridization of surface-plasmon and dielectric waveguide whispering-gallery modes are demonstrated ...
There has been a growing interest in the field of optoelectronics for sub-wavelength lasers due to a...
We report the theoretical investigation of an electrically injected plasmonic nanolaser in visible r...
Abstract"Physics of Optoelectronic and Plasmonic Devices: Cavities, Waveguides, Modulators and Laser...
We investigate electrically pumped, distributed feedback (DFB) lasers, based on gap-plasmon mode met...
Plasmonic lasers generate strongly confined electromagnetic fields over a narrow range of wavelength...
Unlike conventional dielectric photonic structures, metal coated or plasmonic structures can confine...
Plasmonic lasers generate strongly confined electromagnetic fields over a narrow range of wavelength...
As miniaturized light sources of size beyond the optical diffraction limit, surface plasmon lasers a...
We demonstrate lasing in Metal-Insulator-Metal (MIM) waveguides filled with electrically pumped semi...