Jun-Wen Luo, De-Wei Wu, Qiang Miao, Tian-Li Wei. Research progress in non-classical microwave states preparation based on cavity optomechanical system [J]. Acta Physica Sinica, 2020, 69(5): 054203-1
- Acta Physica Sinica
- Vol. 69, Issue 5, 054203-1 (2020)
![Schematic of Fabry-Perot cavity[30].](/richHtml/wlxb/2020/69/5/20191735/img_1.jpg)
Fig. 1. Schematic of Fabry-Perot cavity[30].
![Cavity optomechanical systems with different mecha-nical vibration frequencies and masses[39].](/richHtml/wlxb/2020/69/5/20191735/img_2.jpg)
Fig. 2. Cavity optomechanical systems with different mecha-nical vibration frequencies and masses[39].
Fig. 3. Schematic of Fabry-Perot interferometer.
Fig. 4. Schematic of proposal from Vitali’s group[43].
Fig. 5. Schematic of proposal from Bitarafan[45].
Fig. 6. Experimental setup of F-P cavity with levitated particle[47].
Fig. 7. Illustration of whispering gallery mode.
Fig. 8. (a) Structures of the first whispering gallery mode cavity[48]; (b) its enhanced version[49].
Fig. 9. Schematic of whispering gallery mode cavity formed by fiber taper and polymer wire[51].
Fig. 10. Schematic of whispering gallery mode cavity formed by metal-doped material[52].
Fig. 12. Schematic of proposal from Sankey’s group[54].
Fig. 13. Schematic of vibrating membrane cavity with two pumps[55].
Fig. 14. Structure of zipper-like photonic crystal cavity[57]
Fig. 15. Structures of (a) snowflake photonic crystal cavity[58], (b) diamond NV center photonic crystal cavity[59], and (c) hexagonal photonic crystal cavity[61].
Fig. 16. Structures of (a) distributed superconducting microwave cavity[62] and (b) drum-like superconducting microwave cavity[63].
Fig. 17. Schematic (a) and structure (b) of Si3N4 membrane superconducting microwave cavity[64].
Fig. 18. (a) Structure of membrane superconducting microwave cavity designed by Li et al.[65]; (b) experimental setup designed by Bienfait et al.[66].
Fig. 19. (a) Structure of quadrature hybrid coupler[73]; (b) structure of 20 dB directional coupler[73]; (c) schematic of microwave EPR state preparation[74].
Fig. 20. Schematic of microwave continuous-variable entanglement state preparation proposed by Li et al.[75].
Fig. 21. Structure of superconducting microwave cavity designed by Palomaki et al.[76].
Fig. 22. Schematic of microwave squeezed state preparation and microwave-mechanical vibration mode entanglement preparation proposed by Sete et al.[77].
Fig. 23. Schematic of preparing highly squeezed state in microwave domain[78].
Fig. 24. Schematic of cavity electro-opto-mechanical system[79].
Fig. 25. Schematic of cavity electro-opto-mechanical hybrid quantum interface proposed by Tian[83].
Fig. 26. Schematic and structure of cavity electro-opto-mechanical converter designed by Andrews et al.[84].
Fig. 27. Schematic of distant microwave fields entanglement preparation proposed by Abdi et al.[85].
Fig. 28. Schematic of microwave quantum illumination based on double cavity electro-opto-mechanical converters[79]
Fig. 29. Schematic of Gaussian and non-Gaussian microwave quantum states preparation based on cavity electro-opto-mechanical converter[86].
Fig. 30. Schematic of cavity electro-opto-mechanical converter introducing optical parametric amplifier[87].
Fig. 31. Schematic of quantum state transferring proposed by Regal’sgroup[88].
Fig. 32. Schematic of multichannel quantum router based on cavity electro-opto-mechanical[89].
Fig. 33. Schematic of heraldedmicrowave-optical entanglement preparation based on cavity electro-opto-mechanical system[90].
|
Table 1.
Summary for current research states of 5 main cavity optomechanical systems.
5种主要腔光力系统的研究现状总结
|
Table 2.
Preparations of non-classical quantum statesof microwave based on cavity opto-mechanical system
基于腔光力系统的微波非经典量子态制备
Set citation alerts for the article
Please enter your email address
© Copyright 2018-2021 | Chinese Laser Press. All Rights Reserved 沪ICP备15018463号-20