Single-sideband microwave-to-optical conversion in high-Q ferrimagnetic microspheres

被引：0

作者：

CHENGZHE CHAI ^{[1
,2
]}

ZHEN SHEN ^{[1
,2
]}

YANLEI ZHANG ^{[1
,2
]}

HAOQI ZHAO ^{[1
,2
,3
]}

GUANGCAN GUO ^{[1
,2
]}

CHANGLING ZOU ^{[1
,2
]}

CHUNHUA DONG ^{[1
,2
]}

机构：

[1] CAS Key Laboratory of Quantum Information, University of Science and Technology of China

[2] CAS Center for Excellence in Quantum Information and Quantum Physics, University of Science and Technology of China

[3] Department of Electrical and Systems Engineering, University of Pennsylvania

来源：

Photonics Research | 2022年 / 03期

关键词：

D O I：

暂无

中图分类号：

O431.1 [光的电磁理论];

学科分类号：

070207 ; 0803 ;

摘要：

Coherent conversion of microwave and optical photons can significantly expand the capabilities of information processing and communications systems. Here, we experimentally demonstrate the microwave-to-optical frequency conversion in a magneto-optical whispering gallery mode microcavity. By applying a magnetic field parallel to the microsphere equator, the intracavity optical field will be modulated when the magnon is excited by the microwave drive, leading to a microwave-to-optical conversion via the magnetic Stokes and anti-Stokes scattering processes. The observed single-sideband conversion phenomenon indicates a nontrivial optical photon–magnon interaction mechanism derived from the magnon that induced both the frequency shift and modulated coupling rate of optical modes. In addition, we demonstrate the single-sideband frequency conversion with an ultrawide tuning range up to 2.5 GHz, showing its great potential in microwave-to-optical conversion.

引用

页码：820 / 827

页数：8

共 41 条

[1]

Bidirectional interconversion of microwave and light with thin-film lithium niobate.[J] Xu Yuntao;Sayem Ayed Al;Fan Linran;Zou ChangLing;Wang Sihao;Cheng Risheng;Fu Wei;Yang Likai;Xu Mingrui;Tang Hong X Nature communications 2021,

[2]

Non‐Reciprocity in High‐Q Ferromagnetic Microspheres via Photonic Spin–Orbit Coupling[J] Cheng‐Zhe Chai;Hao‐Qi Zhao;Hong X. Tang;Guang‐Can Guo;Chang‐Ling Zou;Chun‐Hua Dong Laser & Photonics Reviews 2020,

[3]

Entanglement-based single-shot detection of a single magnon with a superconducting qubit[J] Dany Lachance-Quirion;Samuel Piotr Wolski;Yutaka Tabuchi;Shingo Kono;Koji Usami;Yasunobu Nakamura Science 2020,

[4]

Coherent Conversion Between Microwave and Optical Photons—An Overview of Physical Implementations[J] Nicholas J. Lambert;Alfredo Rueda;Florian Sedlmeir;Harald G. L. Schwefel Advanced Quantum Technologies 2020,

[5]

Helicity-Changing Brillouin Light Scattering by Magnons in a Ferromagnetic Crystal.[J] Hisatomi R;Noguchi A;Yamazaki R;Nakata Y;Gloppe A;Nakamura Y;Usami K Physical review letters 2019,

[6]

Microwave to optical conversion with atoms on a superconducting chip[J] David Petrosyan;Klaus Mølmer;József Fortágh;Mark Saffman New Journal of Physics 2019,

[7]

Microwave to optical photon conversion via fully concentrated rare-earth-ion crystals[J] Jonathan R. Everts;Matthew C. Berrington;Rose L. Ahlefeldt;Jevon J. Longdell Physical Review A 2019,

[8]

Electron Spin Coherence in Optically Excited States of Rare-Earth Ions for Microwave to Optical Quantum Transducers.[J] Welinski Sacha;Woodburn Philip J T;Lauk Nikolai;Cone Rufus L;Simon Christoph;Goldner Philippe;Thiel Charles W Physical review letters 2019,

[9]

Hybrid quantum systems based on magnonics[J] Dany Lachance-Quirion;Yutaka Tabuchi;Arnaud Gloppe;Koji Usami;Yasunobu Nakamura Applied Physics Express 2019,

[10]

Efficient microwave-to-optical conversion using Rydberg atoms[J] Thibault Vogt;Christian Gross;Jingshan Han;Sambit B. Pal;Mark Lam;Martin Kiffner;Wenhui Li Physical Review A 2019,

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