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典型文献
Tunable mechanical-mode coupling based on nanobeam-double optomechanical cavities
文献摘要:
Tunable coupled mechanical resonators with nonequilibrium dynamic phenomena have attracted considerable attention in quantum simulations, quantum computations, and non-Hermitian systems. In this study, we propose tunable mechanical-mode coupling based on nanobeam-double optomechanical cavities. The excited optical mode interacts with both symmetric and antisymmetric mechanical supermodes and mediates coupling at a frequency of approximately 4.96 GHz. The mechanical-mode coupling is tuned through both optical spring and gain effects, and the reduced coupled frequency difference in non-Hermitian parameter space is observed. These results benefit research on the microscopic mechanical parity–time symmetry for topology and on-chip high-sensitivity sensors.
文献关键词:
作者姓名:
Qiancheng Xu;Kaiyu Cui;Ning Wu;Xue Feng;Fang Liu;Wei Zhang;Yidong Huang
作者机构:
Department of Electronic Engineering, Tsinghua University, Beijing 100084, China;Beijing National Research Center for Information Science and Technology (BNRist), Tsinghua University, Beijing 100084, China;Beijing Academy of Quantum Information Sciences, Beijing, China
引用格式:
[1]Qiancheng Xu;Kaiyu Cui;Ning Wu;Xue Feng;Fang Liu;Wei Zhang;Yidong Huang-.Tunable mechanical-mode coupling based on nanobeam-double optomechanical cavities)[J].光子学研究(英文),2022(08):1819
A类:
supermodes
B类:
Tunable,coupling,nanobeam,double,optomechanical,cavities,coupled,resonators,nonequilibrium,dynamic,phenomena,have,attracted,considerable,attention,quantum,simulations,computations,Hermitian,systems,In,this,study,we,propose,tunable,excited,optical,interacts,both,antisymmetric,mediates,frequency,approximately,GHz,tuned,through,spring,gain,effects,reduced,difference,parameter,space,observed,These,results,benefit,research,microscopic,parity,symmetry,topology,chip,high,sensitivity,sensors
AB值:
0.586832
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