用户名: 密码: 验证码:
可调谐掺铒光纤激光器及超荧光光纤光源的研究
详细信息    本馆镜像全文|  推荐本文 |  |   获取CNKI官网全文
摘要
本论文对可调谐光纤激光器做了简要综述,对可调谐掺铒光纤激光器进行
    了理论分析和实验研究,文章最后还对超荧光光纤光源进行了理论分析和实验
    研究。具体做了以下工作:
     1 首先在第一章介绍了光纤激光器的分类及其工作原理,以及可调谐激光
    器的发展现状。
     2 论文在第二章介绍了可调谐半导体激光器的工作原理,以及用于可调谐
    光纤激光器的可调谐滤波器的工作原理。论文还在此章着重介绍了 F-P 滤波器
    的工作原理,特性参数以及级联 F-P 滤波器的性能和基本结构,并分析计算了
    一个应用的例子。
     3 在第三章中,首先介绍了掺铒光纤激光器的设计原理,又分析了掺铒光
    纤激光器工作在 L 波段的原理。利用楔形膜可调谐滤波器,自制的 F-P 角度
    调谐滤波器,以及保偏光纤环形镜分别作为调谐装置,设计了 C 带可调谐掺
    铒光纤激光器,并进行了实验研究。利用楔形膜可调谐滤波器获得了最佳输出
    效果,调谐范围是 1528nm-1563nm,覆盖了大部分 C 带,激光输出功率可达
    1mW,线宽可达 0.094nm。
     4 此外,还设计了利用保偏光纤环形镜作为调谐装置的 L 带可调谐光纤激
    光器,并进行了实验研究。其中双级泵浦 L 带可调谐光纤激光器和加入 FBG
    的 L 带可调谐光纤激光器获得了理想的效果,可调谐范围从 1565nm-1615nm,
    基本覆盖了整个 L 带,激光的输出功率大于 1mW,线宽在 0.6nm 左右。
     5 在最后一章,首先分析了光纤超荧光的产生原理及其基本结构,接着设
    计了 L 带以及宽带超荧光光源,并进行了实验。得到的 L 带超荧光输出的 3dB
    带宽从 1565nm-1610nm;宽带超荧光输出的 3dB 平坦度内的带宽从
    1550nm-1607nm,其总的转换效率为 12.3%。
In this dissertation, theoretical and experiment studies of tunable Er3+ doped fiber
    laser are presented. In the end ,the study about Super-fluorescent Source(SFS) is
    also presented. Several works is carried out as follows:
     1 In the first chapter, the working principles of different fiber lasers and the
    developing condition of tunable lasers are introduced.
     2 In the second chapter, the operating principles of tunable semiconductor lasers
    and the tunable principles of tunable filters are introduced. Moreover, the chapter is
    also emphasized on the principle special parameters of F-P filter.The characteristics
    and basic structures ofcascade F-P filters are also presented.
     3 In the third chapter, firstly, we introduce the design principle of Er3+ doped
    fiber laser. Secondly, the theory of Er3+ doped fiber laser working at L-band is
    analyzed. In the following, we designed different fiber lasers which are working at
    C-band by different filters.The best outcome obtained by cuniform membrane filter.
    The tunable range is 1528nm-1563nm, which almost cover entire C-band. Output
    power is 1mW and bandwidth is 0.094nm.
     4 In addition, we designed different kinds of tunable L-band fiber lasers which
    are tuned by PMF-FLM. Among them, the ideal outcomes obtained by double
    pumped structure and the structure with a FBG. The tunable range is 1565nm-1615nm,
    which is almost cover entire L-band. The output power is more than 1mW and the
    bandwidth is about 0.6nm.
     5 At the last chapter, we analyzed the principle and the structures of SFS. In the
    following, we designed L-band SFS and broad band SFS.The 3dB bandwidth of
    L-band SFS is 1565nm-1610nm.And that of broadband is 1550- 1607nm.The total
    efficiency of it is 12.3%.
引文
参考文献 
    [1] Kim S K,Chu M J,Lee D H et al.,Wideband multiwavelength erbium-doped
     fiberring laser,(A).OFC 2000,ThA3-2
    [2] Komukai T,Yamamoto T,Sugawa T et al.,Uoconversion pumped thulium-doped
     fluoride fiber amplifier and laser operating at 1.47 μm (J).IEEE J Quant
     Electron,1995,31(11):1880-1889
    [3] Hana D C ,Percival R.M,Perry I R et al.,An Ytterbium-doped monomode fiber
     laser:brodly tunable operation from 1.01 μm to 1.162 μm 8 and three level
     operation at 974nm,[J]. J Mod Opt,1990,37:329-331
    [4] DU W Ch.IPG ,High Power Fiber Lasers & Their Potential Applications,[A].广州
     2002 年光纤激光器研究与应用最近进展研讨会,2002.7
    [5] Offerhau S H L.Alrarez-Chavez A,Nilsson J rt al., Multi-mJ,Multi-W Q-switchad
     fiber laser,[J].Opt Lett,2000,25:37-39
    [6] K.Kudo,et al.,1.55- μm wavelength-selectable microarray DFB-LD’s with integrated
     MMI combiner,SOA,and EA-modulator,OFC’00,2000,TUL5
    [7] K.Kudo,et al., Wavelength-selectable microarray light sources simultaneously
     fabricated on a wafer covering the entire C-band,OFC’01,2001,TuB4
    [8] S.Calvez,et al., Erbium-doped fiber laser tuning using two cascaded Mach-Zehnder
     interfermeters as intracavity filter:Numerical analysis and experimental confirm-
     ation, Lightwave Tech.,2001, 19:893-898
    [9] J.M.Oh,et al.,Efficient tunable fiber ring laser for 1580nm band with a fiber Bragg
     grating,OFC’00,2000,WA6
    [10] D.M.Adams,et al.,Module-packaged tunable laser and wavelength locker
     delivering 40mW of fiber-coupled power on 34channels,Electron. Lett., 2001,
     37(11):691-693
    [11] B.Pezeshki,et al.,20-mW widely tunable laser module DFB array and MEMS
     selection,IEEE Photon.Technol.Lett.,2002,14(10):1457-1459
    [12] B.Mason,et al.,Design of sample grating DBR lasers with integrated semiconductor
     optical amplifiers,IEEE Photon.Tech. Lett.,2000, 12(7):762-764
    [13] G.Sarlet, et al. ,Wavelength and mode stabilization of widely tunable SG-DBR and
     SSG-DBR lasers,IEEE Photon.Tech.Lett., 1999, 11 (11):1351-1353
    [14] 沈宏海,可调谐激光器提供各种灵活的通道选择方法。《光机电信息》
     1999,19(4):463~467
     - 50 -
    
    
    参考文献
    [15] F.kano et al.,Frequency and stabilization of broadly tunable SSG-DBR
     lasers,OFC’02,2002,ThV3
    [16] B.Mason et al.,Widely tunable sampled grating DBR laser with integrated elecro
     absorption modulator,IEEE Photon. Technol. Lett, 1999,11(6):638-640
    [17]B.Mason et al.,Design of sampled grating DBR lasers witintegratedsemiconductor
     optical amplifiers,IEEE Photon. Technol. Lett, 2000,12(7):762-764
    [18] G.Busico et al.,A widely tunable digital supermode DBR laser with high SMSR ”,
     Proc. of ECOC’2002 , paper Tu3.3.2
    [19] D.Vakhshoori,et al.,MEMS-tunable vertical-cavitysurface-emitting lasers, OF
     C ’00, 2001,paper TuJ1
    [20] M.Jiang,et al., Error free 2.5 Gb/s transmission over 125km conventional fiber of
     a directly modulated widely tunable vertical cavity surface emitting laser ,OFC’
     01,2001,TuJ3
    [21] D.Vakhshoori et al., MEMS-tunable vertical-cavitysurface-emitting lasers , Proc.
     of OFC’2001 , paper TuJ1
    [22]L.Fulop,etal.,High power ASE-free tunable laser using Sagnac ring interferometer
     within the external cavity , OFC’01,2001,TuJ6
    [23] J.D.Berger,et al., Widely tunable external cavity diode laser based on a a MEMS
     electrostatic rotary actuator,OFC’01,2001,Paper TuJ2
    [24] T. Day et al., External-cavity tunable diode lasers for network deployment , Proc.
     of OFC’2001 , paper TuJ4
    [25]魏道平等,10GHz可调谐主动锁模光纤环形激光器研究,《光学技术》,2001,1:
     1-3
    [26] 杨石泉等,由高双折射光纤环镜构成的可变波长输出的 L-波段掺铒光纤激
     光器,《中国激光》,2002,29(10):868-870
    [27] Jianliang Yang et al. ,Wideband wavelength tunable fiber ring laser with flattened
     output power spectrum , Optics Communications , 2002 210:313-318
    [28] 杨石泉等,“工作在 L-波段的可调谐环形腔掺铒光纤激光器”,《中国激光》,
     2002,29(8):677-679
    [29]Yamashita S. Baba T,Multiwavelength fiber lasers with tunable wavelength
     spacing,(A).OFC 2001,WA8-1
    [30] 胡斌等,利用 AOTF 的可调谐光纤激光器的特性研究,中国激光,2003,
     30(1):5-8
    [31] 开桂云等,光纤光栅调节全光纤激光器,光电子 ?激光,1999,10(5):522-524
    [32]Yamashita S. et al. ,“Widely tunable erbium-doped fiber ring laser covering both
     C-band and L-band”,Quantum Electronics 2001,7(1):41-43
    [33] 严伟,王海林等,学术交流.
    [34] 黄庚辰等,TeO2 声光可调谐滤光器,无机材料学报,(J),1986 1(4):300-308
    [35]U.Ghera,N.Konforti, M.Tur,Wavelength tenability in a Nd-doped fiber laser with
     an intracavity polarizer, [J]. IEEE Photon. Technol. Lett. , 1992,4(1):4-6
     - 51 -
    
    
    参考文献
    [36]葛春风等,可调谐环形腔光纤光栅激光器,光学学报,1999,19(6):762-765
    [37] D.N.Payne,A.J.Barlow,J.R.Hansen,Development of low-and high-birefringence
     optical fibers, [J].IEEE Trans. Microwave Theory Tech.,1982,30(4):323~334
    [38] Ball G A,Morey W W,Continuously tunable single-mode erbium fiber laser,Opt.
     Lett.,1992,17(6):420-421
    [39] Ball G A,Morey W W,Compression-tuned single-frequency Bragg grating fiber
     laser,Opt.Lett.,1994,10(23):1979-1980
    [40] U.Ghera,N.Konforti, M.Tur, Wavelength tenability in a Nd-doped fiber laser with
     an intracavity polarizer, [J]. IEEE Photon. Technol. Lett.,1992,4(1):4-6
    [41]I.D.Miller,D.B.Mortimore,P.Urquhart,B.J.Ainslie,S.P.Craig,C.A.Millar,and
     D.B.Payne,ANd3+-doped cw fiber laser using all-fiber reflectors,Appl.Opt.,
     1987,26(11):2197-2201
    [42] D.B.Mortimore,Fiber loop reflector,J.Lightwave Technol., 1988,6(7):1217-1224
    [43] K.Morishita and K. Takashina,Polarization properties of fused fiber couplers and
     polarizing beamsplitters,J.Lightwave Technol,1991,9(11):1503-1507
    [44] K.Morishita and K.Aso,Fiber loop polarizers using a fused taper coupler ,
     J.Lightwave Technol., 1994,12(4):634-637
    [45] 张祥冰 ,光通信技术,1989,4:6-8
    [46] S.B.Poole et al.,Fabrication of low-loss optical fibers containing rare-earth
     ions,Electron.Lett., 1985 .21.
    [47] Komukai T,Nakazawa M.,Tunable single frequency Erbium doped fiber ring
     lasers using fiber grating etalons, [J]. Jpn J Appl Phys,1995,34(6A):679-680.
    [48] Jauncey I M,Reekie L,Mears R J et al.,Narrow-linewidth fiber laser operating at
     1.55 μm ,[J].Opt Lett,1987,12(3):164~165.
    [49] Wyatt R.,High-Power broadly tunable erbium-doped silica fiber,[J].Electron
     Lett,1989,25(22):1489.
    [50] Reekei L.,Tunable single-mode fiber laser, [J].J of Light Tech, 1989,7(7):860.
    [51] Kagi N.,Gain characteristics of Er3+-doped fiber with a Quasi-confined
     structure,[J].J of Light Tech,1990,8(9):1235
    [52] J.F.Massicott,J.R.Armitage,et.al ,High gain broadband 1.6μmEr-doped silica fiber
     amplifier,Electr.Lett ,1990,26(20):1645
    [53] C.G.Atkins,J.F.massicott,et.al.,High-gain broad spectral bandwidth Er-doped
     fiber amplifier pumped near 1.5μm,Electr. Lett.,25(14):910 -989
    [54] Lee J, Ryu U, Ahn S J et al. ,Enhancement of power conversion efficiency for an
     L-band EDFA with secondary pumping effect in the unpumped EDF section,
     IEEE Photon. Technol. Lett., 1999,11(1):42~45
    [55]葛春风,全光纤波分复用通信系统中关键技术的研究[D],南开大学研究生学
     位论文,1999。
    [56] J.F.Massicott,R.Wyatt et.al.,Efficient high power high gain Er-doped silica fiber
     amplifier,Electr.Lett.,26(14):1038 -1990
     - 52 -
    
    
    参考文献
    [57] K. Liu, M.Digonnet,H.J.Shaw et al.,10mW superfluorescent single- mode fibre
     source at 1060nm,Electron.Lett.,1987,23(24):1320-1321
    [58] W. K.Burns, Fiber superfluorescent sources for fiber gyro applications,Springer
     Proceedings in Physics, 1989,Berlin:Spring-Verleg,143-148
    [59] Digonert,M.J.F.,Theory of superfluorescent lasers,J.Lightwave Technol.,1986, L
     T-4 : 1631-1639
    [60] L.W.Casperson and A.Yariv.,Sectral narrowing in high-gain lasers,IEEE J. Quan-
     tum Electron. ,1972 ,QE-8(2)
    [61] PaulF. Wysocki,M.J.F Digonnet,B.Y.Kim et al.,Characteristics of
     erbium-doped superfluorescent fibersources for interometric sensor application.,J.
     Lightwave Technol.,1994,12(3):550-567
    [62] Douglas C. Hall,William K.Burns,Robert P.Moeller.,High-stability Er3+-doped
     superfluorescent fiber sources. J. Lightwave Technol., 1995,13(7):1452-1460
    [63] L.A.Wang,C.D.Chen.,Stab1e and broadband Er-doped superfluorescent fiber
     sources using double-pass backward configuration, Electron. Lett.,1996,32(19):
     1815-1817
    [64] Characteristic comparison of Er-doped double-pass superfluorescent fiber
     sources pumped near 980nm.IEEE Photon.Technol. Lett.,1997. 9 (4):446-448
    [65] Dominque M. Dagenais,Lew Goldberg,Robert P. Moeller et al.,Wavelength
     stability characteristics of high-power, amplified superfluorescent source,J.
     Lightwave Technol.,1999,17(8):1415-142l
    [66] Felton A. Flood, “L-band Erbium-doped fiber amplifiers”, Proc. of OFC’2000,
     Paper,
    [67] Szu-Chi Tsai, Tseng-Chien Tsai, et al.,,High Pumping -Efficiency L-Band Erbium
     -Doped Fiber ASE Source Using Double-Pass Bidirectional-Pumping Configu-
     ration, IEEE Photon. Lett.,2003,15:197-199
    [68] M.O.Berendt, W.A.Arellano, Hdefonso de Faria,et al., Expended band Erbium
     amplified spontaneous emission source, Lasers and Electro-Optics Europe’
     2000,paper CWF115
    [69] R.P.Espindola,G.Ales,J.Park, et al., 80nm spectrally flattened,high power erbium
     amplified spontaneous emission fibre source, Electron.Lett., 2000, 36(15): 1263
     -1265
    [70] I.D.Miller et al.,A Na-doped cw fiber laser using all-fiber reflection,Appl. Opt.,
     1987,26.

© 2004-2018 中国地质图书馆版权所有 京ICP备05064691号 京公网安备11010802017129号

地址:北京市海淀区学院路29号 邮编:100083

电话:办公室:(+86 10)66554848;文献借阅、咨询服务、科技查新:66554700