We investigated the plasmon-exciton interactions in an individual gold nanorod (GNR) with monolayer MoS2 at room temperature with the single-particle spectroscopy technique. To control the plasmon-exciton interaction, we tuned the local surface plasmon resonance of an individual GNR in-situ by employing the photothermal reshaping effect. The scattering spectra of the GNR-MoS2 hybrids exhibited two dips at the frequencies of the A and B excitons of monolayer MoS2, which were caused by the plasmon-induced resonance energy transfer effect. The resonance energy transfer rate increased when the surface plasmon resonance of the nanorod matched well with the exciton transition energy. Also, we demonstrated that the plasmon-enhanced fluorescence process dominated the photoluminescence of the GNR-MoS2 hybrid. These results provide a flexible way to control the plasmon-exciton interaction in an all-solid-state operating system at room temperature.
Controlling plasmon-exciton interactions through photothermal reshaping
First published at:Jan 20, 2020
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the National Key Research and Development Program of China (grant No. 2018YFB2200401) and the National Natural Science Foundation of China (grant Nos. 91950111, 61521004 and 11527901).
Get Citation: Hu A Q, Liu S, Zhao J Y, Wen T, Zhang W D et al. Controlling plasmon-exciton interactions through photothermal reshaping. Opto-Electron Adv 3, 190017 (2020).
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