Large Core Photonic Microcells for Coherent Optics and Laser Metrology

被引:1
|
作者
Wheeler, N. V. [1 ]
Grogan, M. D. W. [1 ]
Wang, Y. Y. [1 ]
Murphy, D. F. [2 ]
Birks, T. A. [1 ]
Benabid, F. [1 ]
机构
[1] Univ Bath, Dept Phys, Ctr Photon & Photon Mat, Bath BA2 7AY, Avon, England
[2] Waterford Inst Technol, Dept Comp Math & Phys, Opt Res Grp, Waterford, Ireland
来源
关键词
Hollow core-photonic crystal fibers; gas spectroscopy; all-fiber devices; photonic microcells; ELECTROMAGNETICALLY-INDUCED TRANSPARENCY; STIMULATED RAMAN-SCATTERING; FIBER; BAND; ACCURACY; COMPACT; NM;
D O I
10.1117/12.881124
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
A photonic microcell (PMC) is a length of gas-filled hollow core-photonic crystal fiber (HC-PCF) which is hermetically sealed at both ends by splicing to standard single mode fiber. We describe advances in the fabrication technique of PMCs which enable large core Kagome-lattice HC-PCFs to be integrated into PMC form. The modified fabrication technique uses fiber-tapering to accommodate the large dimensions of the fiber and enables low loss splices with single mode fiber by reducing mode field mismatch. Splice losses as low as 0.6 dB are achieved between 1-cell defect Kagome HC-PCF and single mode fiber. Relative to the previously reported PMCs, which were based on photonic bandgap HC-PCF, the present Kagome HC-PCF based PMC provides broad optical transmission, surface mode-free guidance and larger core at the cost of slightly increased fiber attenuation (similar to 0.2 dB/m). Therefore, the integration of this fiber into PMC form opens up new applications for PMC-based devices. The advantage of the large core dimensions and surface mode free guidance for quantum optics in gas-filled HC-PCF are demonstrated by generation of narrow sub-Doppler features in an acetylene-filled large core PMC.
引用
收藏
页数:12
相关论文
共 50 条
  • [31] On-the-fly particle metrology in hollow-core photonic crystal fibre
    Sharma, Abhinav
    Xie, Shangran
    Zeltner, Richard
    Russell, Philip St J.
    OPTICS EXPRESS, 2019, 27 (24): : 34496 - 34504
  • [32] Precision metrology of NSTX surfaces using coherent laser radar ranging
    Kugel, HW
    Loesser, D
    Roquemore, AL
    Menon, MM
    Barry, RE
    REVIEW OF SCIENTIFIC INSTRUMENTS, 2001, 72 (01): : 533 - 536
  • [33] Photonic crystal changes coherent laser to incoherent laser with random phase
    Zheng, Hong-Zhao
    Liang, Wen-Yao
    Li, Zhen
    Dong, Jian-Wen
    Wang, He-Zhou
    OPTICS COMMUNICATIONS, 2010, 283 (07) : 1394 - 1396
  • [34] On-the-Fly Particle Metrology in Hollow-Core Photonic Crystal fiber
    Xie, Shangran
    Sharma, Abhinav
    Zeltner, Richard
    Russell, Philip St J.
    2020 ASIA COMMUNICATIONS AND PHOTONICS CONFERENCE (ACP) AND INTERNATIONAL CONFERENCE ON INFORMATION PHOTONICS AND OPTICAL COMMUNICATIONS (IPOC), 2020,
  • [35] Coherent Cherenkov radiation and laser oscillation in a photonic crystal
    Denis, T.
    van Dijk, M. W.
    Lee, J. H. H.
    van der Meer, R.
    Strooisma, A.
    van der Slot, P. J. M.
    Vos, W. L.
    Boller, K. -J.
    PHYSICAL REVIEW A, 2016, 94 (05)
  • [36] Coherent optics of spherical photonic dots: transition between weak and strong coupling
    Smith, A
    Nikolaev, NI
    Ivanov, AL
    Physics of Semiconductors, Pts A and B, 2005, 772 : 757 - 758
  • [37] Micro-Finish Topographer: surface finish metrology for large and small optics
    Parks, Robert E.
    OPTICAL MANUFACTURING AND TESTING IX, 2011, 8126
  • [38] Performance evaluation of adaptive optics for atmospheric coherent laser communications
    Liu, Chao
    Chen, Shanqiu
    Li, XinYang
    Xian, Hao
    OPTICS EXPRESS, 2014, 22 (13): : 15554 - 15563
  • [39] Effectiveness of Adaptive Optics for Coherent Laser Communications in Atmospheric Turbulence
    Toselli, Italo
    Gladysz, Szymon
    ENVIRONMENTAL EFFECTS ON LIGHT PROPAGATION AND ADAPTIVE SYSTEMS V, 2022, 12266
  • [40] USE OF A SEMICONDUCTOR LASER IN A COHERENT-OPTICS VELOCIMETER.
    Dubnishchev, Yu.N.
    Zhmud, V.A.
    Pavlov, V.A.
    Stolpovskii, A.A.
    1600,