Multi-order phononic frequency comb generation within a MoS2 electromechanical resonator

In this work, we measure and tune simultaneously the vibration of a 1-nm thick MoS2 suspended monolayer with standard electrical excitation and optical techniques. At ambient temperature, we first investigate the strong parametric coupling between two different mechanical modes (ω1 and ω2). We demon...

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Veröffentlicht in:Applied physics letters 2021-10, Vol.119 (17)
Hauptverfasser: Chiout, Anis, Correia, Franck, Zhao, Meng-Qiang, Johnson, A. T. Charlie, Pierucci, Debora, Oehler, Fabrice, Ouerghi, Abdelkarim, Chaste, Julien
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container_issue 17
container_start_page
container_title Applied physics letters
container_volume 119
creator Chiout, Anis
Correia, Franck
Zhao, Meng-Qiang
Johnson, A. T. Charlie
Pierucci, Debora
Oehler, Fabrice
Ouerghi, Abdelkarim
Chaste, Julien
description In this work, we measure and tune simultaneously the vibration of a 1-nm thick MoS2 suspended monolayer with standard electrical excitation and optical techniques. At ambient temperature, we first investigate the strong parametric coupling between two different mechanical modes (ω1 and ω2). We demonstrate a high and quasi-linear tunability of the mode frequencies with the parametric pump voltage. Then, we couple the highly tunable main vibration (ω1) to a parametric pump frequency (ωp) to obtain a high number of sidebands at frequencies ω1 ± m ωp, driving the mechanical mode with a large external electrical force. This oscillating force, applied via the gate voltage, acts as a stress onto the MoS2 sheet. The obtained frequency comb has a large spectral band and contains up to 100 harmonics, with potential applications in quantum information processing and heat or sound transport.
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source AIP Journals Complete; Alma/SFX Local Collection
subjects Ambient temperature
Applied physics
Condensed Matter
Data processing
Electric potential
Molybdenum disulfide
Optics
Physics
Quantum phenomena
Sidebands
Vibration measurement
Voltage
title Multi-order phononic frequency comb generation within a MoS2 electromechanical resonator
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