We show that a broadband Fabry–Perot microcavity can assist an emitter coupled to an off-resonant plasmonic nanoantenna to inhibit the nonradiative channels that affect the quenching of fluorescence. We identify the interference mechanism that creates the necessary enhanced couplings and bandwidth narrowing of the hybrid resonance and show that it can assist entering into the strong coupling regime. Our results provide new possibilities for improving the efficiency of solid-state emitters and accessing diverse realms of photophysics with hybrid structures that can be fabricated using existing technologies
Emission properties of a quantum emitter can be significantly modified inside nanometre-sized gaps b...
Hensen M, Heilpern T, Gray SK, Pfeiffer W. Strong Coupling and Entanglement of Quantum Emitters Embe...
Strong interaction between light and a single quantum emitter is essential to a great number of appl...
We show that a broadband Fabry Perot microcavity can assist an emitter coupled to an off-resonant pl...
An emitter in the vicinity of a metal nanostructure is quenched by its decay through nonradiative ch...
An emitter in the vicinity of a metal nanostructure is quenched by its decay through nonradiative ch...
Generalizing a previously developed analytical model of metal-enhanced fluorescence to the case of t...
The optical properties of molecules can be changed by the presence of a cavity. If the cavity is res...
A major aim in experimental nano- and quantum optics is observing and controlling the interaction be...
Strong light–matter coupling, characterized by a coherent exchange of energy between an emitter and ...
In the light-matter strong coupling regime, the excited state of quantum emitters is inextricably li...
In the light−matter strong coupling regime, the excited state of quantum emitters is inextricably l...
Cavity quantum electrodynamics is the art of enhancing light-matter interaction of photon emitters i...
The large losses of plasmonic nanocavities, orders of magnitude beyond those of photonic dielectric ...
We theoretically investigated the multi-mode coupling among the localized surface plasmon resonance,...
Emission properties of a quantum emitter can be significantly modified inside nanometre-sized gaps b...
Hensen M, Heilpern T, Gray SK, Pfeiffer W. Strong Coupling and Entanglement of Quantum Emitters Embe...
Strong interaction between light and a single quantum emitter is essential to a great number of appl...
We show that a broadband Fabry Perot microcavity can assist an emitter coupled to an off-resonant pl...
An emitter in the vicinity of a metal nanostructure is quenched by its decay through nonradiative ch...
An emitter in the vicinity of a metal nanostructure is quenched by its decay through nonradiative ch...
Generalizing a previously developed analytical model of metal-enhanced fluorescence to the case of t...
The optical properties of molecules can be changed by the presence of a cavity. If the cavity is res...
A major aim in experimental nano- and quantum optics is observing and controlling the interaction be...
Strong light–matter coupling, characterized by a coherent exchange of energy between an emitter and ...
In the light-matter strong coupling regime, the excited state of quantum emitters is inextricably li...
In the light−matter strong coupling regime, the excited state of quantum emitters is inextricably l...
Cavity quantum electrodynamics is the art of enhancing light-matter interaction of photon emitters i...
The large losses of plasmonic nanocavities, orders of magnitude beyond those of photonic dielectric ...
We theoretically investigated the multi-mode coupling among the localized surface plasmon resonance,...
Emission properties of a quantum emitter can be significantly modified inside nanometre-sized gaps b...
Hensen M, Heilpern T, Gray SK, Pfeiffer W. Strong Coupling and Entanglement of Quantum Emitters Embe...
Strong interaction between light and a single quantum emitter is essential to a great number of appl...