Omni-resonant optical micro-cavity

被引:0
|
作者
Soroush Shabahang
H. Esat Kondakci
Massimo L. Villinger
Joshua D. Perlstein
Ahmed El Halawany
Ayman F. Abouraddy
机构
[1] University of Central Florida,CREOL, The College of Optics & Photonics
[2] College of Engineering and Computer Science,Materials Science and Engineering Department
[3] University of Central Florida,undefined
来源
关键词
D O I
暂无
中图分类号
学科分类号
摘要
Optical cavities transmit light only at discrete resonant frequencies, which are well-separated in micro-structures. Despite attempts at the construction of planar ‘white-light cavities’, the benefits accrued upon optically interacting with a cavity – such as resonant field buildup – have remained confined to narrow linewidths. Here, we demonstrate achromatic optical transmission through a planar Fabry-Pérot micro-cavity via angularly multiplexed phase-matching that exploits a bio-inspired grating configuration. By correlating each wavelength with an appropriate angle of incidence, a continuous spectrum resonates and the micro-cavity is rendered transparent. The locus of a single-order 0.7-nm-wide resonance is de-slanted in spectral-angular space to become a 60-nm-wide achromatic resonance spanning multiple cavity free-spectral-ranges. The result is an ‘omni-resonant’ planar micro-cavity in which light resonates continuously over a broad spectral span. This approach severs the link between the resonance bandwidth and the cavity-photon lifetime, thereby promising resonant enhancement of linear and nonlinear optical effects over broad bandwidths in ultrathin devices.
引用
收藏
相关论文
共 50 条
  • [21] Micro-cavity lasers with directional emission
    Yan, Changling
    Wang, Qijie
    Yu, Nanfang
    OPTOELECTRONIC DEVICES AND INTEGRATION IV, 2012, 8555
  • [22] Optically induced transparency in a micro-cavity
    Zheng, Yuanlin
    Yang, Jianfan
    Shen, Zhenhua
    Cao, Jianjun
    Chen, Xianfeng
    Liang, Xiaogan
    Wan, Wenjie
    LIGHT-SCIENCE & APPLICATIONS, 2016, 5 : e16072 - e16072
  • [23] Optically induced transparency in a micro-cavity
    Yuanlin Zheng
    Jianfan Yang
    Zhenhua Shen
    Jianjun Cao
    Xianfeng Chen
    Xiaogan Liang
    Wenjie Wan
    Light: Science & Applications, 2016, 5 : e16072 - e16072
  • [24] Molded plastic micro-cavity lasers
    Nilsson, D
    Nielsen, T
    Kristensen, A
    MICROELECTRONIC ENGINEERING, 2004, 73-4 : 372 - 376
  • [25] Statistical simulation of micro-cavity flows
    Jiang, JZ
    Fan, J
    Shen, C
    RAREFIED GAS DYNAMICS, 2003, 663 : 784 - 791
  • [26] NUMERICAL ANALYSIS OF ELECTROOSMOSIS IN A MICRO-CAVITY
    Fernandes, Dolfred V.
    Kang, Sangmo
    Suh, Yong K.
    PROCEEDINGS OF THE 6TH INTERNATIONAL CONFERENCE ON NANOCHANNELS, MICROCHANNELS, AND MINICHANNELS, PTS A AND B, 2008, : 475 - 481
  • [27] A hemispherical, high-solid-angle optical micro-cavity for cavity-QED studies
    Cui, GQ
    Hannigan, JM
    Loeckenhoff, R
    Matinaga, FM
    Raymer, MG
    Bhongale, S
    Holland, M
    Mosor, S
    Chatterjee, S
    Gibbs, HM
    Khitrova, G
    OPTICS EXPRESS, 2006, 14 (06): : 2289 - 2299
  • [28] Micro-cavity light emitting diodes
    Baets, R
    SEMICONDUCTOR QUANTUM OPTOELECTRONICS: FROM QUANTUM PHYSICS TO SMART DEVICES, 1999, 50 : 213 - 264
  • [29] Modelling the dynamics of a micro-cavity switch
    Dias, Hasula K.
    Kaunga-Nyirenda, Simeon Newton
    Lim, Jun Jun
    Phillips, Andrew J.
    Larkins, Eric C.
    IET OPTOELECTRONICS, 2014, 8 (02) : 58 - 63
  • [30] Microstructured optical fiber-based micro-cavity sensor for chemical detection
    Kim, Bongkyun
    Ahn, Jin-Chul
    Chung, Phil-Sang
    Chung, Youngjoo
    OPTICAL FIBERS AND SENSORS FOR MEDICAL DIAGNOSTICS AND TREATMENT APPLICATIONS XIV, 2014, 8938