太赫兹半导体激光光频梳研究进展

廖小瑜; 曹俊诚; 黎华

doi:10.7498/aps.69.20200399

摘要

光频梳由一系列等间距、高稳定性的频率线组成. 由于具有超高频率稳定性和超低相位噪声, 光频梳在精密光谱测量、成像、通信等领域具有重要应用. 在太赫兹波段, 基于半导体的电抽运太赫兹量子级联激光器具有大功率输出、宽频率覆盖范围等特点, 是产生太赫兹光频梳的理想载体. 本文主要介绍基于太赫兹半导体量子级联激光器光频梳的研究进展, 详细列举了自由运行、主动稳频和被动稳频模式下产生光频梳的方法. 双光梳光谱可以克服传统太赫兹光谱仪需要机械扫描系统而难以实现实时光谱检测的难题, 是光频梳应用的主要方向. 在光频梳基础之上, 本文还介绍了采用两个太赫兹量子级联激光器产生双光梳的方法和应用.

关键词:

Abstract

Optical frequency comb consists of a series of equally spaced and highly stable frequency lines. Due to the advantages of the ultra-high frequency stability and ultra-low phase noise, the optical frequency combs have important applications in high precision spectroscopy, imaging, communications, etc. In the terahertz frequency range, semiconductor-based electrically pumped terahertz quantum cascade lasers have the characteristics of high output power and wide frequency coverage, and are the ideal candidates for generating terahertz optical frequency combs. In this article, we first briefly introduce the research progress of the optical frequency comb in the communication and the mid-infrared bands. Then we mainly review the research progress of the optical frequency combs based on the terahertz semiconductor quantum cascade laser (QCL) operating in free-running, active frequency stabilization and passive frequency stabilization modes. In free running mode, the terahertz QCL frequency comb is mainly limited by the large group velocity dispersion which results in a small comb bandwidth. Therefore, the dispersion compensation is one of the important methods to stabilize the optical frequency comb and broaden the spectral bandwidth. At present, the active frequency stabilization mode is a relatively matured method to realize the optical frequency combs in terahertz QCLs. In this article, we also detail the methods and applications of terahertz QCL dual-comb operations, including on-chip dual-comb and dual-comb spectroscopy. Compared with the Fourier transform infrared spectroscopy and time domain spectroscopy, the terahertz dual-comb spectroscopy has advantages in fast data acquisition (real-time) and high spectral resolution. The emergence of the dual-comb technique not only verifies the concept of optical frequency combs, but also further promotes the applications of frequency combs.

Keywords:

作者及机构信息

1.
中国科学院上海微系统与信息技术研究所, 中国科学院太赫兹固态技术重点实验室, 上海　200050

2.
中国科学院大学, 材料与光电研究中心, 北京　100049

通信作者: 黎华, hua.li@mail.sim.ac.cn

基金项目: 国家优秀青年科学基金(批准号：62022084)、国家自然科学基金(批准号: 61875220, 61575214, 61404150, 61405233, 61704181)、中国科学院“从0到1”原始创新项目(批准号: ZDBC-LY-JSC009)、国家重点研发计划(批准号：2017YFF0106302, 2017YFA0701005)、上海市优秀学术带头人(批准号：20XD1424700)和上海市青年拔尖人才开发计划资助的课题.

Authors and contacts

1.
Key Laboratory of Terahertz Solid State Technology, Shanghai Institute of Microsystem and Information Technology, Chinese Academy of Science, Shanghai 200050, China

2.
Center of Materials Science and Optoelectronics Engineering, University of Chinese Academy of Sciences, Beijing 100049, China

Corresponding author: Li Hua, hua.li@mail.sim.ac.cn

Funds: Project supported by the National Science Fund for Excellent Young Scholars of China (Grant No. 62022084), the National Natural Science Foundation of China (Grant Nos. 61875220, 61575214, 61404150, 61405233, 61704181), the “From 0 to 1” Innovation Program of Chinese Academy of Sciences, China (Grant No. ZDBC-LY-JSC009), the Major National Development Project of Scientific Instrument and Equipment, China (Grant Nos. 2017YFF0106302, 2017YFA0701005), the Shanghai Outstanding Academic Leaders Plan, China (Grant No. 20XD1424700), and the Shanghai Youth Top Talent Support Program, China.

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参考文献

[1]	Diddams S A 2010 J. Opt. Soc. Am. B 27 B51 Google Scholar
[2]	Udem T, Holzwarth R, Hänsch T W 2002 Nature 416 233 Google Scholar
[3]	Schliesser A, Picqué N, Hänsch T W 2012 Nat. Photon. 6 440 Google Scholar
[4]	Füser H, Bieler M 2014 J. Infrared Millim. Terahertz Waves 35 585 Google Scholar
[5]	Reichert J, Niering M, Holzwarth R, Weitz M, Udem T, Hansch T W 2000 Phys. Rev. Lett. 84 3232 Google Scholar
[6]	Diddams S A, Jones D J, Ye J, Cundiff S T, Hall J L, Ranka J K, Windeler R S, Holzwarth R, Udem T, Hansch T W 2000 Phys. Rev. Lett. 84 5102 Google Scholar
[7]	Beha K, Cole D C, Del’Haye P, Coillet A, Diddams S A, Papp S B 2017 Optica 4 406 Google Scholar
[8]	Kourogi M, Nakagawa K i, Ohtsu M 1993 IEEE J. Quantum Electron. 29 2693 Google Scholar
[9]	Zhang M, Buscaino B, Wang C, Shams-Ansari A, Reimer C, Zhu R, Kahn J M, Lončar M 2019 Nature 568 373 Google Scholar
[10]	Wang C, Zhang M, Yu M, Zhu R, Hu H, Loncar M 2019 Nat. Commun. 10 978 Google Scholar
[11]	Marin-Palomo P, Kemal J N, Karpov M, Kordts A, Pfeifle J, Pfeiffer M H P, Trocha P, Wolf S, Brasch V, Anderson M H, Rosenberger R, Vijayan K, Freude W, Kippenberg T J, Koos C 2017 Nature 546 274 Google Scholar
[12]	Fischer C, W. Sigrist M 1970 Top. Appl. Phys. 99 Google Scholar
[13]	Gubin M A, Kireev A N, Konyashchenko A V, Kryukov P G, Shelkovnikov A S, Tausenev A V, Tyurikov D A 2009 Appl. Phys. B 95 661 Google Scholar
[14]	Adler F, Cossel K, J Thorpe M, Hartl I, Fermann M, Ye J 2009 Opt. Lett. 34 1330 Google Scholar
[15]	Scalari G, Faist J, Picqué N 2019 Appl. Phys. Lett. 114 150401 Google Scholar
[16]	Jun Y, Schnatz H, Hollberg L W 2003 IEEE J. Sel. Top. Quantum Electron. 9 1041 Google Scholar
[17]	Wang Y, Soskind M G, Wang W, Wysocki G 2014 Appl. Phys. Lett. 104 031114 Google Scholar
[18]	Kumar S 2011 IEEE J. Sel. Top. Quantum Electron. 17 38 Google Scholar
[19]	Siegel P 2002 IEEE Trans. Microw. Theory Tech. 50 910 Google Scholar
[20]	Ferguson B, Zhang X 2002 Nat. Mater. 1 26 Google Scholar
[21]	Cao J 2003 Phys. Rev. Lett. 91 237401 Google Scholar
[22]	Tonouchi M 2007 Nat. Photon. 1 97 Google Scholar
[23]	Walther C, Fischer M, Scalari G, Terazzi R, Hoyler N, Faist J 2007 Appl. Phys. Lett. 91 131122 Google Scholar
[24]	Carr G, Martin M, McKinney W, Jordan K, Neil G, Williams G 2002 Nature 420 153 Google Scholar
[25]	Woolard D L, Brown R, Pepper M, Kemp M 2005 Proc. IEEE 93 1722 Google Scholar
[26]	Federici J, Schulkin B, Huang F, Gary D, Barat R, Oliveira F, Zimdars D 2005 Semicond. Sci. Technol. 20 S266 Google Scholar
[27]	Kawase K, Ogawa Y, Yuuki W, Inoue H 2003 Opt. Express 11 2549 Google Scholar
[28]	Chen J, Chen Y, Zhao H, Bastiaans G, Zhang X C 2007 Opt. Express 15 12060 Google Scholar
[29]	Kawase K, Shibuya T, Hayashi S i, Suizu K 2010 C. R. Physique 11 510 Google Scholar
[30]	Fischer B, Walther M, Jepsen P 2002 Phys. Med. Biol. 47 3807 Google Scholar
[31]	Siegel P 2004 IEEE Trans. Microw. Theory Tech. 52 2438 Google Scholar
[32]	Castro-Camus E, Johnston M B 2008 Chem. Phys. Lett. 455 289 Google Scholar
[33]	Kleine-Ostmann T, Pierz K, Hein G, Dawson P, Koch M 2004 Electron. Lett. 40 124 Google Scholar
[34]	Grant P D, Laframboise S R, Dudek R, Graf M, Bezinger A, Liu H 2009 Electron. Lett. 45 952 Google Scholar
[35]	Chen Z, Tan Z Y, Han Y J, Zhang R, Guo X G, Li H, Cao J C, Liu H 2011 Electron. Lett. 47 1002 Google Scholar
[36]	Burford N M, El-Shenawee M O 2017 Opt. Eng. 56 010901 Google Scholar
[37]	Tani M, Hirota Y, Que C T, Tanaka S, Hattori R, Yamaguchi M, Nishizawa S, Hangyo M 2007 J. Infrared Millim. Waves 27 531 Google Scholar
[38]	Yasui T, Kabetani Y, Saneyoshi E, Yokoyama S, Araki T 2006 Appl. Phys. Lett. 88 241104 Google Scholar
[39]	Scalari G, Walther C, Fischer M, Terazzi R, Beere H, Ritchie D, Faist J 2009 Laser Photon. Rev. 3 45 Google Scholar
[40]	Belkin M A, Fan J A, Hormoz S, Capasso F, Khanna S P, Lachab M, Davies A G, Linfield E H 2008 Opt. Express 16 3242 Google Scholar
[41]	Brandstetter M, Deutsch C, Krall M, Detz H, MacFarland D C, Zederbauer T, Andrews A M, Schrenk W, Strasser G, Unterrainer K 2013 Appl. Phys. Lett. 103 171113 Google Scholar
[42]	Danylov A, Erickson N, Light A, Waldman J 2015 Opt. Lett. 40 5090 Google Scholar
[43]	Williams B S 2007 Nat. Photon. 1 517 Google Scholar
[44]	Li H, Laffaille P, Gacemi D, Apfel M, Sirtori C, Leonardon J, Santarelli G, Rosch M, Scalari G, Beck M, Faist J, Hansel W, Holzwarth R, Barbieri S 2015 Opt. Express 23 33270 Google Scholar
[45]	Friedli P, Sigg H, Hinkov B, Hugi A, Riedi S, Beck M, Faist J 2013 Appl. Phys. Lett. 102 222104 Google Scholar
[46]	Gmachl C, Sivco D, Colombelli R, Capasso F, Cho A 2002 Nature 415 883 Google Scholar
[47]	Villares G, Riedi S, Wolf J, Kazakov D, Süess M J, Jouy P, Beck M, Faist J 2016 Optica 3 252 Google Scholar
[48]	Faist J, Villares G, Scalari G, Rösch M, Bonzon C, Hugi A, Beck M 2016 Nanophotonics 5 272 Google Scholar
[49]	Villares G, Faist J 2015 Opt. Express 23 1651 Google Scholar
[50]	Zhou K, Li H, Wan W J, Li Z P, Liao X Y, Cao J C 2019 Appl. Phys. Lett. 114 191106 Google Scholar
[51]	Li H, Cao J, T. Lu J 2008 J. Appl. Phys. 103 103113 Google Scholar
[52]	Burghoff D, Yang Y, Hayton D J, Gao J R, Reno J L, Hu Q 2015 Opt. Express 23 1190 Google Scholar
[53]	Cappelli F, Villares G, Riedi S, Faist J 2015 Optica 2 836 Google Scholar
[54]	Wienold M, Schrottke L, Giehler M, Hey R, Anders W, Grahn H T 2010 Appl. Phys. Lett. 97 071113 Google Scholar
[55]	Dean P, Valavanis A, Keeley J, Bertling K, Lim Y L, Alhathlool R, Burnett A D, Li L H, Khanna S P, Indjin D, Taimre T, Rakić A D, Linfield E H, Davies A G 2014 J. Phys. D Appl. Phys. 47 374008 Google Scholar
[56]	Turčinková D, Scalari G, Castellano F, Amanti M I, Beck M, Faist J 2011 Appl. Phys. Lett. 99 191104 Google Scholar
[57]	Rösch M, Beck M, Süess M J, Bachmann D, Unterrainer K, Faist J, Scalari G 2018 Nanophotonics 7 237 Google Scholar
[58]	Rösch M, Scalari G, Beck M, Faist J 2014 Nat. Photon. 9 42 Google Scholar
[59]	Williams B S, Kumar S, Callebaut H, Hu Q, Reno J L 2003 Appl. Phys. Lett. 83 2124 Google Scholar
[60]	Finneran I, Good J, Holland D, Carroll P, Allodi M, Blake G 2015 Phys. Rev. Lett. 114 163902 Google Scholar
[61]	Burghoff D, Kao T Y, Han N, Chan C W I, Cai X, Yang Y, Hayton D J, Gao J R, Reno J L, Hu Q 2014 Nat. Photon. 8 462 Google Scholar
[62]	Hillbrand J, Jouy P, Beck M, Faist J 2018 Opt. Lett. 43 1746 Google Scholar
[63]	Yang Y, Burghoff D, Reno J, Hu Q 2017 Opt. Lett. 42 3888 Google Scholar
[64]	Barbieri S, Gellie P, Santarelli G, Ding L, Maineult W, Sirtori C, Colombelli R, Beere H, Ritchie D 2010 Nat. Photon. 4 636 Google Scholar
[65]	Gellie P, Barbieri S, Lampin J-F, Filloux P, Manquest C, Sirtori C, Sagnes I, Khanna S P, Linfield E H, Davies A G, Beere H, Ritchie D 2010 Opt. Express 18 20799 Google Scholar
[66]	Faist J, Beck M, Aellen T, Gini E 2001 Appl. Phys. Lett. 78 147 Google Scholar
[67]	Amanti M I, Scalari G, Terazzi R, Fischer M, Beck M, Faist J, Rudra A, Gallo P, Kapon E 2009 New J. Phys. 11 125022 Google Scholar
[68]	Wienold M, Schrottke L, Giehler M, Hey R, Grahn H T 2011 J. Appl. Phys. 109 073112 Google Scholar
[69]	Barbieri S, Ravaro M, Gellie P, Santarelli G, Manquest C, Sirtori C, Khanna S P, Linfield E H, Davies A G 2011 Nat. Photon. 5 306 Google Scholar
[70]	Wan W J, Li H, Zhou T, Cao J C 2017 Sci. Rep. 7 44109 Google Scholar
[71]	Wang F, Nong H, Fobbe T, Pistore V, Houver S, Markmann S, Jukam N, Amanti M, Sirtori C, Moumdji S, Colombelli R, Li L, Linfield E, Davies G, Mangeney J, Tignon J, Dhillon S 2017 Laser Photon. Rev. 11 1700013 Google Scholar
[72]	Wienold M, Röben B, Schrottke L, Grahn H T 2014 Opt. Express 22 30410 Google Scholar
[73]	Coldren L A, Miller B I, Iga K, Rentschler J A 1981 Appl. Phys. Lett. 38 315 Google Scholar
[74]	Tsang W T, Olsson N A, Logan R A 1983 Electron. Lett. 19 488 Google Scholar
[75]	Coldren L, Koch T 1984 IEEE J. Quantum Electron. 20 659 Google Scholar
[76]	Ebeling K J, Coldren L A, Miller B I, Rentschler J A 1983 Appl. Phys. Lett. 42 6 Google Scholar
[77]	Li Z, Li H, Wan W, Zhou K, Cao J, Chang G, Xu G 2018 Opt. Express 26 32675 Google Scholar
[78]	Oustinov D, Jukam N, Rungsawang R, Madeo J, Barbieri S, Filloux P, Sirtori C, Marcadet X, Tignon J, Dhillon S 2010 Nat. Commun. 1 69 Google Scholar
[79]	Udem T, Reichert J, Holzwarth R, Diddams S, Jones D, Ye J, Cundiff S, Hansch T, Hall J 2007 The Hydrogen Atom (Berlin Heidelberg: Springer-Verlag) p125
[80]	Auston D H, Cheung K P 1985 J. Opt. Soc. Am. B 2 606 Google Scholar
[81]	Liang G, Hu X, Yu X, Shen Y, Li L H, Davies A G, Linfield E H, Liang H K, Zhang Y, Yu S F, Wang Q J 2015 ACS Photonics 2 1559 Google Scholar
[82]	Li H, Yan M, Wan W, Zhou T, Zhou K, Li Z, Cao J, Yu Q, Zhang K, Li M, Nan J, He B, Zeng H 2019 Adv. Sci. 6 1900460 Google Scholar
[83]	Han P Y, Tani M, Usami M, Kono S, Kersting R, Zhang X C 2001 J. Appl. Phys. 89 2357 Google Scholar
[84]	Hu G, Mizuguchi T, Oe R, Nitta K, Zhao X, Minamikawa T, Li T, Zheng Z, Yasui T 2018 Sci. Rep. 8 11155 Google Scholar
[85]	Jerez B, Walla F, Betancur A, Martin-Mateos P, de Dios C, Acedo P 2019 Opt. Lett. 44 415 Google Scholar
[86]	Bernhardt B, Ozawa A, Jacquet P, Jacquey M, Kobayashi Y, Udem T, Holzwarth R, Guelachvili G, Hänsch T W, Picqué N 2010 Nat. Photon. 4 55 Google Scholar
[87]	Rösch M, Scalari G, Villares G, Bosco L, Beck M, Faist J 2016 Appl. Phys. Lett. 108 171104 Google Scholar
[88]	Li Z, Wan W, Zhou K, Liao X, Yang S, Fu Z, Cao J C, Li H 2019 Phys. Rev. Appl. 12 044068 Google Scholar
[89]	Yang Y, Burghoff D, Hayton D J, Gao J R, Reno J L, Hu Q 2016 Optica 3 499 Google Scholar
[90]	Richter H, Semenov A D, Pavlov S G, Mahler L, Tredicucci A, Beere H E, Ritchie D A, Il’in K S, Siegel M, Hübers H W 2008 Appl. Phys. Lett. 93 141108 Google Scholar
[91]	Li H, Li Z, Wan W, Zhou K, Liao X, Yang S, Wang C, Cao J C, Zeng H 2020 ACS Photonics 7 49 Google Scholar
[92]	Sterczewski L A, Westberg J, Yang Y, Burghoff D, Reno J, Hu Q, Wysocki G 2019 Optica 6 766 Google Scholar

施引文献

图 1 (a) 光频梳的时域和频域光谱^[3]; (b)自参考方法测量光频梳的偏移频率^[2]

Fig. 1. (a) Time domain and frequency domain spectra of the optical frequency comb^[3]; (b) measuring the offset frequency of the optical comb using a self-reference method^[2].

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图 2 (a)铌酸锂微环谐振腔的显微图; (b) EO梳的输出光谱, 带宽超过80 nm, 频梳线超过900条, 左侧插图为虚线框的放大, 右侧插图为在不同调制指数β的情况下测量的透射光谱^[9]

Fig. 2. (a) Micrograph of a fabricated lithium niobate microring resonator. (b) Output spectrum of the EO comb generated from the microring resonator, the bandwidth exceeding 80 nm and more than 900 comb lines. The left inset shows a magnified view of the dotted. The right inset shows the measured transmission spectrum for several different modulation indices $\beta $^[9].

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图 3 (a)两个间隔为$\delta $的初始频率v₁和v₂; (b)四波混频过程后的频率分布图, 绿色曲线为产生的新的频率边带, 频率分别为${v_1} - \delta $和${v_2} + \delta $^[44]

Fig. 3. (a) Initial mode frequencies, ${v_1}$ and ${v_2}$, separated by $\delta $; (b) final frequencies resulting from four-wave mixing, with the two sidebands at ${v_1} - \delta $ and ${v_2} + \delta $ shown in green^[44].

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图 4 (a)不同脊条宽度下器件的钳制增益和总损耗与频率的关系; (b)不同脊条宽度下的总GVD, 其中4.05—4.35 THz的阴影区域代表THz QCL的激射区域^[50]

Fig. 4. (a) Calculated clamped gain and total loss as function of frequency for lasers with different ridge widths; (b) total GVDs at different ridge widths. The shaded area from 4.05 to 4.35 THz represents the lasing range of the THz QCL^[50].

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图 5 (a)计算器件的横截面增益g_c, 蓝色曲线为有源区单独每一部分的增益曲线, 绿色曲线为有源区总的增益曲线, 插图为激光器有源区的设计模型; (b)激光器的发射光谱, 跨越了一个倍频程^[58]

Fig. 5. (a) Calculated gain cross-section g_c. Blue curves: individual designs. Green curve: total active region. Inset: design of the laser active region. (b) Octave-spanning spectrum of laser^[58].

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图 6 (a)啁啾波纹型结构, 红色为较长波长的波, 蓝色为较短波长的波; (b)温度为50 K时, THz QCL梳的光谱, 黄线表示为水汽吸收^[61]; (c)两段式器件结构示意图, 直流部分为蓝色, FP的一部分为红色; (d)每一段结构的电流-电压特性, 粉色阴影区域表示激光器的动态范围, 插图为实际设备空气间隙的SEM照片^[63]

Fig. 6. (a) Schematic of the chirped corrugation. The red wave has longer wavelength, while the blue wave has shorter wavelength. (b) Spectrum of the THz QCL comb at a temperature of 50 K. Atmospheric absorption is shown in yellow^[61]. (c) Schematic of the device in a two-section configuration. The DC section is shown in blue; part of the FP section is in red. (d) Current-voltage characteristics for each section. The pink-shaded area indicates the entire dynamic range of lasing. The inset shows the SEM photo for the air gap in the real device^[63].

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图 7 THz QCL主动锁模实验装置图, THz QCL发射频率为2.5 THz, 重复频率为13.3 GHz^[69]

Fig. 7. Experimental setup of THz QCL active mode-locking. The emitting frequency of THz QCL is 2.5 THz and its repetition frequency is 13.3 GHz^[69].

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图 8 (a), (b)对THz QCL同时进行注入和锁相的情况下, 改变RF功率和电流得到的拍频信号图; (c), (d)对应条件下在时域内测得的波形, 图中的黑点为实验值, 红色曲线为理论计算值, 其中假设了所有模式具有等相位^[69]

Fig. 8. (a), (b) In the case of simultaneous injection and phase-locking of THz QCL, the beat-note signal diagram obtained by changing the RF power and the current. (c), (d) The waveforms are measured in the time domain under the corresponding conditions. The black dots in the figure are experimental values. The red curves are the result of theoretical calculations by assuming that all modes have equal phase^[69].

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图 9 (a) RF调制THz QCL实验装置图; (b)不同调制电流下的THz发射光谱图, 蓝色曲线为从HITRAN数据库提取3.9—4.2 THz范围内的水吸收线^[70]

Fig. 9. (a) Experimental setup of RF modulation to THz QCL; (b) THz emission spectra under different modulation current. The water absorption lines in the frequency range from 3.9 to 4.4 THz extracted from the HITRAN database^[70]

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图 10 (a)通过注入相干THz脉冲实现QCL载波相位固定的实验装置; (b)在不同输入THz脉冲幅度条件下测量的QCL输出光场, THz脉冲幅度正比于天线电压, 分别为1 V (绿色曲线)、0.25 V (蓝色曲线)和0.06 V (灰色曲线)^[78]

Fig. 10. (a) Experimental setup for achieving the carrier phase fixed in QCL by injecting coherent THz pulse. (b) Measured fields of the QCL output for various input THz pulse amplitudes. The THz pulse amplitude is proportional to the antenna voltage with 1 V (green curve), 0.25 V (blue curve) and 0.06 V (grey curve)^[78].

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图 11 (a)石墨烯耦合QCL结构示意图, 插图为THz波在复合腔中的传播示意图; (b)具有GiSAM与不具有GiSAM的双光梳和线宽^[82]

Fig. 11. (a) Schematic of the graphene-coupled QCL. Inset: Illustration of the terahertz light propagation in the compound cavity. (b) Dual-comb and linewidth with and without GiSAM^[82].

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图 12 (a)片上双光梳的实验原理图; (b)双光梳光谱, 其中蓝色曲线为光谱图, 插图为放大的两相邻梳齿的峰值, 红色曲线为从本地振荡梳中提取出的多外差光谱^[87]; (c)双RF注入下的片上双光梳结构示意图, 插图为实际双光梳装置的光学照片; (d)自由运行模式和RF注入模式下的下转换双光梳谱^[88]

Fig. 12. (a) Schematics of the dual-comb on chip. (b) Optical spectrum (blue curve). The inset shows that the modes consist of two peaks corresponding to the two combs. In red is the corresponding multi-heterodyne spectrum extracted from the current bias of the LO laser^[87]. (c) Schematics of the on-chip dual-comb system under double injection. The inset shows an optical photo of the mounted dual-comb device. (d) The down-converted dual-comb spectra in free-running mode and under a microwave double injection^[88].

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图 13 (a)分离式双光梳实验装置图, 插图显示了铜支架上的两个通过硅透镜耦合的频率梳; (b)在HEB上得到的多外差信号光谱^[89]; (c)紧凑型双光梳实验模拟图, 插图为实际实验装置^[91]

Fig. 13. (a) Experimental setup for separating dual-comb system. Inset shows real laser frequency combs on the copper mount, both of which are silicon lens-coupled. (b) Multiheterodyne signal obtained from the HEB^[89]. (c) Experimental simulation diagram for compact dual-comb system. The illustration shows the actual experimental device^[91].

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图 14 (a)双光梳高光谱成像系统; (b)在光路中放入(红色)或者不放入(蓝色)硅片获取的拍频信号光谱; (c)根据(a)计算出的透射光谱; (d)在零水汽(蓝色)和相对湿度为23% (红色)下获取的拍频信号光谱; (e)根据(d)计算的透射光谱, 蓝色曲线为从2016 HITRAN数据库获得的参数^[92]

Fig. 14. (a) Dual-comb hyperspectral imaging system. (b) Beat note spectra acquired with (red) or without (blue) a silicon wafer inserted in the beam path. (c) Transmission spectra calculated from the beat note spectra in (b). (d) Beat note spectra acquired with zero gas (blue) and atmospheric water vapor at 23% relative humidity (red). (e) Transmission spectra calculated from (d); the blue curve is extracted from the HITRAN 2016 database^[92].

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[1]	Diddams S A 2010 J. Opt. Soc. Am. B 27 B51 Google Scholar
[2]	Udem T, Holzwarth R, Hänsch T W 2002 Nature 416 233 Google Scholar
[3]	Schliesser A, Picqué N, Hänsch T W 2012 Nat. Photon. 6 440 Google Scholar
[4]	Füser H, Bieler M 2014 J. Infrared Millim. Terahertz Waves 35 585 Google Scholar
[5]	Reichert J, Niering M, Holzwarth R, Weitz M, Udem T, Hansch T W 2000 Phys. Rev. Lett. 84 3232 Google Scholar
[6]	Diddams S A, Jones D J, Ye J, Cundiff S T, Hall J L, Ranka J K, Windeler R S, Holzwarth R, Udem T, Hansch T W 2000 Phys. Rev. Lett. 84 5102 Google Scholar
[7]	Beha K, Cole D C, Del’Haye P, Coillet A, Diddams S A, Papp S B 2017 Optica 4 406 Google Scholar
[8]	Kourogi M, Nakagawa K i, Ohtsu M 1993 IEEE J. Quantum Electron. 29 2693 Google Scholar
[9]	Zhang M, Buscaino B, Wang C, Shams-Ansari A, Reimer C, Zhu R, Kahn J M, Lončar M 2019 Nature 568 373 Google Scholar
[10]	Wang C, Zhang M, Yu M, Zhu R, Hu H, Loncar M 2019 Nat. Commun. 10 978 Google Scholar
[11]	Marin-Palomo P, Kemal J N, Karpov M, Kordts A, Pfeifle J, Pfeiffer M H P, Trocha P, Wolf S, Brasch V, Anderson M H, Rosenberger R, Vijayan K, Freude W, Kippenberg T J, Koos C 2017 Nature 546 274 Google Scholar
[12]	Fischer C, W. Sigrist M 1970 Top. Appl. Phys. 99 Google Scholar
[13]	Gubin M A, Kireev A N, Konyashchenko A V, Kryukov P G, Shelkovnikov A S, Tausenev A V, Tyurikov D A 2009 Appl. Phys. B 95 661 Google Scholar
[14]	Adler F, Cossel K, J Thorpe M, Hartl I, Fermann M, Ye J 2009 Opt. Lett. 34 1330 Google Scholar
[15]	Scalari G, Faist J, Picqué N 2019 Appl. Phys. Lett. 114 150401 Google Scholar
[16]	Jun Y, Schnatz H, Hollberg L W 2003 IEEE J. Sel. Top. Quantum Electron. 9 1041 Google Scholar
[17]	Wang Y, Soskind M G, Wang W, Wysocki G 2014 Appl. Phys. Lett. 104 031114 Google Scholar
[18]	Kumar S 2011 IEEE J. Sel. Top. Quantum Electron. 17 38 Google Scholar
[19]	Siegel P 2002 IEEE Trans. Microw. Theory Tech. 50 910 Google Scholar
[20]	Ferguson B, Zhang X 2002 Nat. Mater. 1 26 Google Scholar
[21]	Cao J 2003 Phys. Rev. Lett. 91 237401 Google Scholar
[22]	Tonouchi M 2007 Nat. Photon. 1 97 Google Scholar
[23]	Walther C, Fischer M, Scalari G, Terazzi R, Hoyler N, Faist J 2007 Appl. Phys. Lett. 91 131122 Google Scholar
[24]	Carr G, Martin M, McKinney W, Jordan K, Neil G, Williams G 2002 Nature 420 153 Google Scholar
[25]	Woolard D L, Brown R, Pepper M, Kemp M 2005 Proc. IEEE 93 1722 Google Scholar
[26]	Federici J, Schulkin B, Huang F, Gary D, Barat R, Oliveira F, Zimdars D 2005 Semicond. Sci. Technol. 20 S266 Google Scholar
[27]	Kawase K, Ogawa Y, Yuuki W, Inoue H 2003 Opt. Express 11 2549 Google Scholar
[28]	Chen J, Chen Y, Zhao H, Bastiaans G, Zhang X C 2007 Opt. Express 15 12060 Google Scholar
[29]	Kawase K, Shibuya T, Hayashi S i, Suizu K 2010 C. R. Physique 11 510 Google Scholar
[30]	Fischer B, Walther M, Jepsen P 2002 Phys. Med. Biol. 47 3807 Google Scholar
[31]	Siegel P 2004 IEEE Trans. Microw. Theory Tech. 52 2438 Google Scholar
[32]	Castro-Camus E, Johnston M B 2008 Chem. Phys. Lett. 455 289 Google Scholar
[33]	Kleine-Ostmann T, Pierz K, Hein G, Dawson P, Koch M 2004 Electron. Lett. 40 124 Google Scholar
[34]	Grant P D, Laframboise S R, Dudek R, Graf M, Bezinger A, Liu H 2009 Electron. Lett. 45 952 Google Scholar
[35]	Chen Z, Tan Z Y, Han Y J, Zhang R, Guo X G, Li H, Cao J C, Liu H 2011 Electron. Lett. 47 1002 Google Scholar
[36]	Burford N M, El-Shenawee M O 2017 Opt. Eng. 56 010901 Google Scholar
[37]	Tani M, Hirota Y, Que C T, Tanaka S, Hattori R, Yamaguchi M, Nishizawa S, Hangyo M 2007 J. Infrared Millim. Waves 27 531 Google Scholar
[38]	Yasui T, Kabetani Y, Saneyoshi E, Yokoyama S, Araki T 2006 Appl. Phys. Lett. 88 241104 Google Scholar
[39]	Scalari G, Walther C, Fischer M, Terazzi R, Beere H, Ritchie D, Faist J 2009 Laser Photon. Rev. 3 45 Google Scholar
[40]	Belkin M A, Fan J A, Hormoz S, Capasso F, Khanna S P, Lachab M, Davies A G, Linfield E H 2008 Opt. Express 16 3242 Google Scholar
[41]	Brandstetter M, Deutsch C, Krall M, Detz H, MacFarland D C, Zederbauer T, Andrews A M, Schrenk W, Strasser G, Unterrainer K 2013 Appl. Phys. Lett. 103 171113 Google Scholar
[42]	Danylov A, Erickson N, Light A, Waldman J 2015 Opt. Lett. 40 5090 Google Scholar
[43]	Williams B S 2007 Nat. Photon. 1 517 Google Scholar
[44]	Li H, Laffaille P, Gacemi D, Apfel M, Sirtori C, Leonardon J, Santarelli G, Rosch M, Scalari G, Beck M, Faist J, Hansel W, Holzwarth R, Barbieri S 2015 Opt. Express 23 33270 Google Scholar
[45]	Friedli P, Sigg H, Hinkov B, Hugi A, Riedi S, Beck M, Faist J 2013 Appl. Phys. Lett. 102 222104 Google Scholar
[46]	Gmachl C, Sivco D, Colombelli R, Capasso F, Cho A 2002 Nature 415 883 Google Scholar
[47]	Villares G, Riedi S, Wolf J, Kazakov D, Süess M J, Jouy P, Beck M, Faist J 2016 Optica 3 252 Google Scholar
[48]	Faist J, Villares G, Scalari G, Rösch M, Bonzon C, Hugi A, Beck M 2016 Nanophotonics 5 272 Google Scholar
[49]	Villares G, Faist J 2015 Opt. Express 23 1651 Google Scholar
[50]	Zhou K, Li H, Wan W J, Li Z P, Liao X Y, Cao J C 2019 Appl. Phys. Lett. 114 191106 Google Scholar
[51]	Li H, Cao J, T. Lu J 2008 J. Appl. Phys. 103 103113 Google Scholar
[52]	Burghoff D, Yang Y, Hayton D J, Gao J R, Reno J L, Hu Q 2015 Opt. Express 23 1190 Google Scholar
[53]	Cappelli F, Villares G, Riedi S, Faist J 2015 Optica 2 836 Google Scholar
[54]	Wienold M, Schrottke L, Giehler M, Hey R, Anders W, Grahn H T 2010 Appl. Phys. Lett. 97 071113 Google Scholar
[55]	Dean P, Valavanis A, Keeley J, Bertling K, Lim Y L, Alhathlool R, Burnett A D, Li L H, Khanna S P, Indjin D, Taimre T, Rakić A D, Linfield E H, Davies A G 2014 J. Phys. D Appl. Phys. 47 374008 Google Scholar
[56]	Turčinková D, Scalari G, Castellano F, Amanti M I, Beck M, Faist J 2011 Appl. Phys. Lett. 99 191104 Google Scholar
[57]	Rösch M, Beck M, Süess M J, Bachmann D, Unterrainer K, Faist J, Scalari G 2018 Nanophotonics 7 237 Google Scholar
[58]	Rösch M, Scalari G, Beck M, Faist J 2014 Nat. Photon. 9 42 Google Scholar
[59]	Williams B S, Kumar S, Callebaut H, Hu Q, Reno J L 2003 Appl. Phys. Lett. 83 2124 Google Scholar
[60]	Finneran I, Good J, Holland D, Carroll P, Allodi M, Blake G 2015 Phys. Rev. Lett. 114 163902 Google Scholar
[61]	Burghoff D, Kao T Y, Han N, Chan C W I, Cai X, Yang Y, Hayton D J, Gao J R, Reno J L, Hu Q 2014 Nat. Photon. 8 462 Google Scholar
[62]	Hillbrand J, Jouy P, Beck M, Faist J 2018 Opt. Lett. 43 1746 Google Scholar
[63]	Yang Y, Burghoff D, Reno J, Hu Q 2017 Opt. Lett. 42 3888 Google Scholar
[64]	Barbieri S, Gellie P, Santarelli G, Ding L, Maineult W, Sirtori C, Colombelli R, Beere H, Ritchie D 2010 Nat. Photon. 4 636 Google Scholar
[65]	Gellie P, Barbieri S, Lampin J-F, Filloux P, Manquest C, Sirtori C, Sagnes I, Khanna S P, Linfield E H, Davies A G, Beere H, Ritchie D 2010 Opt. Express 18 20799 Google Scholar
[66]	Faist J, Beck M, Aellen T, Gini E 2001 Appl. Phys. Lett. 78 147 Google Scholar
[67]	Amanti M I, Scalari G, Terazzi R, Fischer M, Beck M, Faist J, Rudra A, Gallo P, Kapon E 2009 New J. Phys. 11 125022 Google Scholar
[68]	Wienold M, Schrottke L, Giehler M, Hey R, Grahn H T 2011 J. Appl. Phys. 109 073112 Google Scholar
[69]	Barbieri S, Ravaro M, Gellie P, Santarelli G, Manquest C, Sirtori C, Khanna S P, Linfield E H, Davies A G 2011 Nat. Photon. 5 306 Google Scholar
[70]	Wan W J, Li H, Zhou T, Cao J C 2017 Sci. Rep. 7 44109 Google Scholar
[71]	Wang F, Nong H, Fobbe T, Pistore V, Houver S, Markmann S, Jukam N, Amanti M, Sirtori C, Moumdji S, Colombelli R, Li L, Linfield E, Davies G, Mangeney J, Tignon J, Dhillon S 2017 Laser Photon. Rev. 11 1700013 Google Scholar
[72]	Wienold M, Röben B, Schrottke L, Grahn H T 2014 Opt. Express 22 30410 Google Scholar
[73]	Coldren L A, Miller B I, Iga K, Rentschler J A 1981 Appl. Phys. Lett. 38 315 Google Scholar
[74]	Tsang W T, Olsson N A, Logan R A 1983 Electron. Lett. 19 488 Google Scholar
[75]	Coldren L, Koch T 1984 IEEE J. Quantum Electron. 20 659 Google Scholar
[76]	Ebeling K J, Coldren L A, Miller B I, Rentschler J A 1983 Appl. Phys. Lett. 42 6 Google Scholar
[77]	Li Z, Li H, Wan W, Zhou K, Cao J, Chang G, Xu G 2018 Opt. Express 26 32675 Google Scholar
[78]	Oustinov D, Jukam N, Rungsawang R, Madeo J, Barbieri S, Filloux P, Sirtori C, Marcadet X, Tignon J, Dhillon S 2010 Nat. Commun. 1 69 Google Scholar
[79]	Udem T, Reichert J, Holzwarth R, Diddams S, Jones D, Ye J, Cundiff S, Hansch T, Hall J 2007 The Hydrogen Atom (Berlin Heidelberg: Springer-Verlag) p125
[80]	Auston D H, Cheung K P 1985 J. Opt. Soc. Am. B 2 606 Google Scholar
[81]	Liang G, Hu X, Yu X, Shen Y, Li L H, Davies A G, Linfield E H, Liang H K, Zhang Y, Yu S F, Wang Q J 2015 ACS Photonics 2 1559 Google Scholar
[82]	Li H, Yan M, Wan W, Zhou T, Zhou K, Li Z, Cao J, Yu Q, Zhang K, Li M, Nan J, He B, Zeng H 2019 Adv. Sci. 6 1900460 Google Scholar
[83]	Han P Y, Tani M, Usami M, Kono S, Kersting R, Zhang X C 2001 J. Appl. Phys. 89 2357 Google Scholar
[84]	Hu G, Mizuguchi T, Oe R, Nitta K, Zhao X, Minamikawa T, Li T, Zheng Z, Yasui T 2018 Sci. Rep. 8 11155 Google Scholar
[85]	Jerez B, Walla F, Betancur A, Martin-Mateos P, de Dios C, Acedo P 2019 Opt. Lett. 44 415 Google Scholar
[86]	Bernhardt B, Ozawa A, Jacquet P, Jacquey M, Kobayashi Y, Udem T, Holzwarth R, Guelachvili G, Hänsch T W, Picqué N 2010 Nat. Photon. 4 55 Google Scholar
[87]	Rösch M, Scalari G, Villares G, Bosco L, Beck M, Faist J 2016 Appl. Phys. Lett. 108 171104 Google Scholar
[88]	Li Z, Wan W, Zhou K, Liao X, Yang S, Fu Z, Cao J C, Li H 2019 Phys. Rev. Appl. 12 044068 Google Scholar
[89]	Yang Y, Burghoff D, Hayton D J, Gao J R, Reno J L, Hu Q 2016 Optica 3 499 Google Scholar
[90]	Richter H, Semenov A D, Pavlov S G, Mahler L, Tredicucci A, Beere H E, Ritchie D A, Il’in K S, Siegel M, Hübers H W 2008 Appl. Phys. Lett. 93 141108 Google Scholar
[91]	Li H, Li Z, Wan W, Zhou K, Liao X, Yang S, Wang C, Cao J C, Zeng H 2020 ACS Photonics 7 49 Google Scholar
[92]	Sterczewski L A, Westberg J, Yang Y, Burghoff D, Reno J, Hu Q, Wysocki G 2019 Optica 6 766 Google Scholar

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