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Energy transfer between photons and molecules and between neighboringmolecules is ubiquitous in living nature, most prominently in photosynthesis.While energy transfer is efficiently utilized by living systems, its adoptionto connect individual components in man-made plasmonic nanocircuits has beenchallenged by low transfer efficiencies which motivate the development ofentirely new concepts for energy transfer. We introduce herein optoplasmonicsuperlenses that combine the capability of optical microcavities to insulatemolecule-photon systems from decohering environmental effects with the superiorlight nanoconcentration properties of nanoantennas. The proposed structuresprovide significant enhancement of the emitter radiative rate and efficientlong-range transfer of emitted photons followed by subsequent re-focusing intonanoscale volumes accessible to near- and far-field detection. Optoplasmonicsuperlenses are versatile building blocks for optoplasmonic nanocircuits andcan be used to construct "dark" single molecule sensors, resonant amplifiers,nanoconcentrators, frequency multiplexers, demultiplexers, energy convertersand dynamical switches.

Spectrally and Spatially Configurable Superlenses for Optoplasmonic Nanocircuits