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Sven Höfling

Researcher at University of Würzburg

Publications -  915
Citations -  25038

Sven Höfling is an academic researcher from University of Würzburg. The author has contributed to research in topics: Quantum dot & Photon. The author has an hindex of 67, co-authored 870 publications receiving 20424 citations. Previous affiliations of Sven Höfling include University of Science and Technology of China & Conrad Hotels.

Papers
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Nanothermometer Based on Resonant Tunneling Diodes: From Cryogenic to Room Temperatures.

TL;DR: The combination of electrical and optical read-outs together with the sensor architecture excel the device as a thermometer with the capability of noninvasive temperature sensing, high local resolution, and sensitivity.
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Mid-infrared GaSb-based resonant tunneling diode photodetectors for gas sensing applications

TL;DR: In this article, a resonant tunneling diode-photodetectors (RTD-PDs) with GaAs0.64In0.36As 0.33Sb0.67 absorption layer covering the fingerprint absorption lines of various gases in the mid-infrared wavelength spectral region is presented.
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Strong Coupling in Fully Tunable Microcavities Filled with Biologically Produced Fluorescent Proteins

TL;DR: In this article, the authors acknowledge financial support from the European Research Council (ERC StG ABLASE, 640012), the Scottish Funding Council (via SUPA), the European Union Marie Curie Career Integration Grant (PCIG12-GA-2012-334407) and the EPSRC Hybrid Polaritonics program grant (EP/M025330/1).
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Widely tunable single-mode quantum cascade lasers with two monolithically coupled Fabry-Pérot cavities

TL;DR: In this paper, a two-segment coupled cavity quantum cascade laser was fabricated in a process with a single dry etch step, and the authors observed controllable vernier effect-based mode switching, induced by the spectral shift of the short cavity's Fabry-Perot mode comb due to Joule heating.
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Room temperature Organic Exciton-Polariton Condensate in a Lattice

TL;DR: In this article, the first experiment conducted on a polaritonic lattice at ambient conditions is discussed, where fluorescent proteins are used as an excitonic gain material, providing ultra-stable Frenkel excitons.