We report on a new class of optical antennas that shorten the excited-state lifetime of optical emitters down to 100 fs in a broad spectral range, while maintaining quantum efficiencies as high as 80%. We combine metal nanoparticles with dielectric structures and exploit concepts from plasmonics and cavity quantum electrodynamics to maximize the local density of states and suppress dissipation losses in the metal. Our findings bring about the prospect of single-photon sources at the mu W power level and promise significant impact on other research fields, including photophysics, ultrafast plasmonics, and Raman spectroscopy
In a previous paper [Nat. Photon. 5, 166 ( 2011)], we reported on a planar dielectric antenna that a...
Single quantum emitters are critical components for many future quantum information technologies. No...
In a previous paper [Nat. Photon. 5, 166 ( 2011)], we reported on a planar dielectric antenna that a...
We report on a new class of optical antennas that shorten the excited-state lifetime of optical emit...
We report on a new class of optical antennas that shorten the excited-state lifetime of optical emit...
We devise new optical antennas that reduce the excited-state radiative lifetimes of emitters to the ...
We devise new optical antennas that reduce the excited-state radiative lifetimes of emitters to the ...
We exploit concepts from plasmonics and cavity quantum electrodynamics to devise new optical antenna...
We exploit concepts from plasmonics and cavity quantum electrodynamics to devise new optical antenna...
International audienceWe report the design of highly efficient optical antennas employing a judiciou...
Thesis (Ph. D.)--University of Rochester. Dept. of Physics and Astronomy, 2012.Optical antennas are ...
We demonstrate a strong, 5-fold enhancement of the radiative decay rate from highly efficient fluore...
Nanometallic optical antennas are rapidly gaining popularity in applications that require exquisite ...
We discuss the use of optical antennas for the modification of the radiative properties of single em...
We discuss the use of optical antennas for the modification of the radiative properties of single em...
In a previous paper [Nat. Photon. 5, 166 ( 2011)], we reported on a planar dielectric antenna that a...
Single quantum emitters are critical components for many future quantum information technologies. No...
In a previous paper [Nat. Photon. 5, 166 ( 2011)], we reported on a planar dielectric antenna that a...
We report on a new class of optical antennas that shorten the excited-state lifetime of optical emit...
We report on a new class of optical antennas that shorten the excited-state lifetime of optical emit...
We devise new optical antennas that reduce the excited-state radiative lifetimes of emitters to the ...
We devise new optical antennas that reduce the excited-state radiative lifetimes of emitters to the ...
We exploit concepts from plasmonics and cavity quantum electrodynamics to devise new optical antenna...
We exploit concepts from plasmonics and cavity quantum electrodynamics to devise new optical antenna...
International audienceWe report the design of highly efficient optical antennas employing a judiciou...
Thesis (Ph. D.)--University of Rochester. Dept. of Physics and Astronomy, 2012.Optical antennas are ...
We demonstrate a strong, 5-fold enhancement of the radiative decay rate from highly efficient fluore...
Nanometallic optical antennas are rapidly gaining popularity in applications that require exquisite ...
We discuss the use of optical antennas for the modification of the radiative properties of single em...
We discuss the use of optical antennas for the modification of the radiative properties of single em...
In a previous paper [Nat. Photon. 5, 166 ( 2011)], we reported on a planar dielectric antenna that a...
Single quantum emitters are critical components for many future quantum information technologies. No...
In a previous paper [Nat. Photon. 5, 166 ( 2011)], we reported on a planar dielectric antenna that a...