Suppressing Decoherence in Quantum Plasmonic Systems by Spectral Hole Burning Effect

Quantum plasmonic systems suffer from significant decoherence due to the intrinsically large dissipative and radiative dampings. Based on our quantum simulations via a quantum tensor network algorithm, we numerically demonstrate the mitigation of this restrictive drawback by hybridizing a plasmonic...

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Bibliographic Details
Published in:arXiv.org 2021-06
Main Authors: Jia-Bin You, Xiong, Xiao, Bai, Ping, Zhang-Kai, Zhou, Wan-Li, Yang, Ching Eng Png, Kwek, Leong Chuan, Wu, Lin
Format: Article
Language:English
Subjects:
Damping
Emitters
Hole burning
Hybrid systems
Quantum phenomena
Spectra
Spectral emittance
Online Access:Get full text
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Summary:Quantum plasmonic systems suffer from significant decoherence due to the intrinsically large dissipative and radiative dampings. Based on our quantum simulations via a quantum tensor network algorithm, we numerically demonstrate the mitigation of this restrictive drawback by hybridizing a plasmonic nanocavity with an emitter ensemble with inhomogeneously-broadened transition frequencies. By burning two narrow spectral holes in the spectral density of the emitter ensemble, the coherent time of Rabi oscillation for the hybrid system is increased tenfold. With the suppressed decoherence, we move one step further in bringing plasmonic systems into practical quantum applications.
ISSN:2331-8422
DOI:10.48550/arxiv.2003.10103