用户名: 密码: 验证码:
半导体激光器与铲形光纤耦合技术研究
详细信息    本馆镜像全文|  推荐本文 |  |   获取CNKI官网全文
摘要
随着光纤技术的发展,光纤的应用范围愈来愈广泛。特别是光通信方面,光纤已成为最重要的传输介质。半导体激光器具有体积小、寿命长、电光转换效率高、调制方便、可集成等优点,在光通信中得到了广泛的应用。但半导体激光器的有源区面积很小,其光束发散角很大,快轴方向一般为30°~40°,在与光纤耦合时要对激光光束进行准直及整形来提高光束质量及耦合效率。为了提高耦合失容度和减少调试、安装的困难,常用光纤微透镜来减少光束的发散角和增大光纤的数值孔径。随着大功率激光器的研制成功和推广应用,光纤输出光束的质量制约着激光器的应用。
     目前对光纤耦合系统的失容度的研究较少,而且大多集中在国防、军工等方面,因此对大功率半导体激光器光纤耦合系统的失容度问题具有现实意义。通过对国内外各种铲形光纤技术的调研和比较,主要进行了以下几项工作:
     1.介绍了LD的结构和远场模式以及光纤传输光的基本理论,阐述了激光束的整形方法和提高光纤数值孔径的方法。总结了国内外光纤耦合器的产品现状,介绍了LD与光纤的耦合方式及耦合系统,并简要的介绍了常用的耦合系统。
     2.对铲形光纤的制备工艺和控制参数给予了简单的介绍。在光纤耦合理论的基础上,阐述了铲形光纤与LD的耦合系统分析方法和基本原理。分析了光束发散角、耦合距离、光纤的芯径与耦合效率的关系,并得到了最佳耦合效率和最大耦合效率。
     3.对铲形光纤耦合系统的失容度进行了分析。详细说明了该系统的功率特性与各维向的失容误差之间的关系。为降低调试和封装的难度提供了理论指导,进而有利于提高铲形光纤器件的发展及应用。
     4.按照理论指导制备了不同切割角度、切割深度的铲形光纤,并对制备的铲形光纤进行实验测量,实验证明:铲形光纤经过改进后,可提高与LD耦合的耦合效率。此结果可对铲形光纤的优化设计及实际应用提供了理论指导。
With the development of optical fiber technology, the range of fiber applications is wider and wider. Especially in optical communications, optical fiber has become the most important optical waveguide. Semiconductor laser has been widely used in optical communication with advantages of a small size, long life, electro-optical conversion efficiency, modulation convenience, can be integrate and so on. Because the semiconductor laser active area is small, its output beam divergence angle of a great, fast-axis direction is generally 30°~ 40°, collimating and shaping the laser beam is need to improve the beam quality when coupled with the optical fiber. In order to improve reliability, reduce the coupling loss of encapsulation and installation difficulties, we can use micro-lens to reduce the beam divergence angle and increasing the numerical aperture of optical fiber. With the successful development and promotion application of high-power laser, the quality of optical fiber output beam constraints the application of optical fiber.
     The current research of degree of loss in fiber-coupled system is relatively small and mostly concentrated in the defense and military, so the research of degree of loss of capacity problem in high-power fiber-coupled semiconductor laser system has practical significance.
     In this paper, through a variety of research and comparison in shovel-shaped fiber-optic technology at home and abroad, we mainly have done the following tasks:
     1. Introduced the structure of semiconductor lasers, far-field pattern and the basic theory of optical fiber transmission, described the laser beam shaping methods and the methods of fiber numerical aperture. Have summarized the status of optical fiber coupler products, introduces the semiconductor laser and fiber coupling system and a brief description of common coupling.
     2. Given a brief introduction on the spade-shaped fiber preparation process and control parameters. Based on the theory of the optical fiber coupling, have expounded the analysis method and basic principles in shovel-shaped optical fiber coupled with the LD systems. Through the analysis of the beam divergence, coupling distance, fiber core diameter and the relationship between coupling efficiency, we got the best coupling efficiency and maximum coupling efficiency.
     3. Analyzed the degree of loss of capacity on the shovel-shaped optical fiber coupling system. Introduce the relationship between the characteristics of the system power loss on each dimension and the content error. Provide a theoretical guidance of reducing the difficulty of debugging and packaging, and thus give a great help to improve the shovel-shaped optical device development and application.
     4. Prepared the different cutting angle and cutting depth of the shovel-shaped fiber in accordance with the theoretical guidance, and with experimental measurement of prepared shovel-shaped fiber, and the results show: the improved shovel-shaped fiber may improve the coupling efficiency coupled with the LD. This result can provide theoretical guidance to the optimization design and practical application of shovel-shaped fiber.
引文
[1]陈少武,韩勤等,大功率半导体激光器光纤耦合模块的耦合光学系统[J],半导体学报,2002, 22(12):1572-1576
    [2]顾兴志,邹建等,半导体激光器与光纤耦合系统的研究[J],压电与声光,2005,27(3):222-225
    [3]黄德修,刘雪峰,半导体激光器及其应用[M],北京:国防工业出版社,1999:197-199
    [4] A.Cho,Film Deeposition by Molecular Beam techniques[M], J.Vac. Sci.tech, 1971, 8: 31-38
    [5]周炳琨,高以智等,激光技术[M],第4版,北京:国防工业出版社,2001,305-306
    [6]于海鹰等,微透镜光纤在半导体激光器中的应用研究[J],半导体光电,2005,26(5):400-402
    [7] Peter Y.Wang,Beam-shoping optics deliver high-power beams[J],Laser Focus World,2001,37(12):115-118
    [8] N.Chand., S.N.G.Chu., and M.Geva., Effect of substrate misorientation on incorporation of ambient oxygen and interfacial roughness in AlGaAs/GaAs heterostructures grown by molecular-beam cpitaxy[J], Appl.Phys.,2000,59:2874
    [9] Saruwatari M,Sugie T,Efficient laser diode to single-mode fiber coupling using a combination of two lenses in con-focal condition[J],IEEE., Quantum Electron, 1981,QE-17:1021-1032
    [10]张建,Hollinger Franz,耦合半导体激光进入光纤[J],激光技术,1996,20(3): 129-132
    [11] Wang xiaowei,Xiao jianwei,Wang zhongming et.al,High brightness high power density fiber coupling of high power laser diode[J],Chinese Semi-conductor, 2001,22(9):1112-1115
    [12]马惠萍,刘丽华,杨乐民等,光纤耦合问题的研究及球形端面光纤的应用[J],光电工程,2002,29 (4):46-49
    [13]杨齐民,王崇真,钟丽云,张文碧,激光束与光纤耦合的研究[J],云南工业大学学报,1995,11(1) :l-5
    [14] Gerd Keise,光纤通信[M],李玉权,崔敏,蒲涛译,北京,电子工业出版社,2002,178-182
    [15] Barnard CW,Lit JWY,Mode transforming properties of tapered single- mode fiber micro lenses[J],Appl. Opt., 1993,32(12):2090-2094
    [16]林彬,曾小东等,大功率激光二极管与多模光纤耦合效率分析[J],光学学报,2003,23(10):1200-1201
    [17] Toyocazu Sakamoto,Characteristic analysis of laser diode to multimode fiber coupling using a Plano-convex GRIN lens[J],Appl. Opt., 1987,26(15):2947-2951
    [18]冯喆珺,曾小东等,半导体激光器与半锥形多模光纤耦合效率的分析[J],西安电子科技大学学报(自然科学版),2002,29(6):760-763
    [19] Zhang Quan,Tang Haiqing,Angular Alignment Tolerances for a 980 nm Pump Laser Diode Coupled to a Cylindrical Lensed Fiber[J],ACTA PHOTONICA SINICA,2003,32(1): 93-97
    [20]焦明星,陈书练等,大功率LD与多模光纤的直接耦合[J],激光技术, 1997,21(2):77-79
    [21] Leger, Method and apparatus for efficient concentration of light from laser diode array[P], United States Patent 5647107, July 28, 1998
    [22]左铁钏,高强铝台金的激光加工[M],北京:国防工业出版社, 2002, 258-261
    [1]刘德森,殷宗敏,纤维光学[M],北京:科学出版社,1987,75-78
    [2] Chen Ya fu,Flow-line Quantum Theory of The Light Propagation in the Film Medium[J], SPIE ,1994,Vo1.2321,46-50
    [3]龚中麟,徐承和,电磁理论研究导引[M],北京:北京大学出版社,1994,107-110
    [4] V. I. Beloglazov,Yu. S. Skibina,V.V.Tuchin,et al, Optical transmission of hollow glass photonic-crystal fibers[J], Technical Physics Letters, 2005, 31(12) :1019-1021
    [5] B.de Beauvoir,F.Nez,L.Hilico,et al..Transmission of an optical frequency through a 3 km long optical fiber[J] , Springer Berlin/ Heidelberg ,1998,1(2):227-229
    [6]苗新,光纤通信技术[M],北京:国防工业出版社,2002:75-77
    [7]袁松青等,光纤通信原理[M],北京:人民邮电出版社,1998,180-181
    [8]张煦,光纤通信原理[M],上海:上海交通大学出版社,1985,45-46
    [9] Masayuki Nishimura, Optical fibers and fiber dispersion compensators for high-speed optical communication[J] , Journal of Optical and Fiber Communications Reports,2005,2(2):115-139
    [10]吴重庆,光波导理论[M],北京:清华大学出版社,2000, 37-39
    [11] Kiyoung Jung,JunKyun Choi, A Study of Blocking Probability in WDM Network[J],Lecture Notes in Computer Science,2002,2343(1):337-345
    [12] J.E.Midwinter,Optical Fibers for Transmission[M],John Wiley & Sons, New York, Chichester. Brisbane. Toronto,1993,124-126
    [13]黄德修,刘雪峰,半导体激光器及其应用[M],北京,国防工业出版社,1999, 57-60
    [14] L.A. Mel’nikov,E. A. Romanova, E. V. Bekker, Nonlinear transmission of a single-mode optical fiber with a sharp change of core diameter [J], Optics andSpectroscopy,2000,89(5):761-765
    [15] D. Marcuse,Theory of Dielectric Optical Waveguides[M], Academic,New York,1996,87-90
    [16]波恩,沃耳夫,光学原理[M],北京:科学出版社,1978,77-79
    [17]赵仲刚,光纤通信与光纤传感器[M],上海:上海科技文献出版社,1993:160-166
    [18]廖延彪,光纤光学[M],北京:清华大学出版社,2000:35-37
    [19]王慧文,江先进等,光纤传感技术与应用[M],北京:国防工业出版社,2001,172-175
    [20] B.de Beauvoir,F.Nez,L.Hilico,et al.Transmission of an optical frequency through a 3km long optical fiber[J], Springer Berlin / Heidelberg,1998,1(2):227-229
    [21] D.Kumar,O.N Singh, Analysis of the Propagation Characteristics of a Step-Index Waveguide of Annular Circular Cross-Section with Conducting Helical Windings on the Inner and Outer Boundary Surfaces Between the Guiding and the Non Guiding Regions[J], Journal of Electromagnetic Waves and Applications,2004,18(12):1655-1669
    [1]马慧莲,杨建文等,光波导-单模光纤的直接耦合[J],光通信研究,2000,99(3):43-47
    [2]崔兆云,曾晓东等,LD光场柱透镜准直技术研究[J],激光杂志,2003,24(4):14-15
    [3]梁一平,戴特力,圆柱透镜对半导体激光光束准直性能的改进[J],中国激光,2004,31(11):1305-13011
    [4] Ji Xiaoling,LüBaida, Effect of spherically berated lens on beam quality[J], Chinese laser,2001,A28(4):347-350
    [5]李宝红,刘雪峰等,半导体激光器到单模光纤耦合技术的现状及发展趋势[J],光电子技术,1996,16(2):137-141
    [6] Stone J,Long-Working-Distance Expanded-Beam Fiber Micro- lenses[J],Electron. Lett,1991,27(7):582-593
    [7]潘玉寨,张军等,一种多模多光纤功率耦合器件及其制备方法[P],中国专利,专利号:03110907.1
    [8] Marshall I. Nathan, William P. Drake Gerald Burns, Frederick H Dill,Jr. and Gordon Lasher,Stimulated emission of radiation from GaAs PN junction[J],Appl. Phys. Lett., 2001,1(3),62-65
    [9]夏文兵,胡企铨等,半导体激光准直耦合装置[P],中国人民共和国专利,专利号:200510023470.0
    [10]李宝红,刘雪峰等,半导体激光器到单模光纤耦合技术的现状及发展趋势[J],光电子技术,1996,16(2):137-141
    [11]刘德明,黄德修等,行波半导体激光放大器耦合技术研究[J],光学学报,1992,12(4):308-312
    [12]毛虎,吴恒锋,高斯光束传输理论在半导体激光器耦合中的应用[J],半导体光电,2001,22(5):361-364
    [13]宁长春,陈天禄,索朗桑姆等,大功率半导体激光器光纤耦合技术研究[J],激光与红外,2007,37(10):1041-1044
    [14] Xiangru Wang , Caidong Xiong, Juanyan Luo, Coupling coefficients evaluation of a directional coupler using gain guided and index antiguided fibers [J], Optics Communications, 2009,282:382–386
    [15]马晓辉,史全林,徐莉等,高功率半导体激光器光纤耦合模块[J],红外与激光工程,2009,38(4):674-679
    [16] M.G.daSilva, A.M.Bastos, C.S.Sobrinho, Analytical and numerical studies of the performance of a nonlinear directional fiber coupler with periodically modulated dispersion[J], Optical Fiber Technology , 2006,12:148–161
    [17]周崇喜杜春雷谢伟民等,微光学元件阵列面阵LD光束整形及光纤耦合[J],红外与激光工程,2008:38(3),45-46
    [18]李强姜梦华雷訇等,工业用大功率固体激光加工系统[J],中国激光,2008,35(11):1847-1853
    [19]王宝华姜梦华惠勇凌等,大功率固体激光器高效率光纤耦合[J],中国激光, 2008,35(2):195-201
    [1] H.L.An, Theoretical investigation on the effective coupling from laser diode to tapered lensed single-mode optical fiber[J], Optical Communication, 2000,Vol.181, 89-95
    [2]赵发英,张全,唐海青,平端光纤与锥端球透镜光纤的耦合[J],光子学报,2003,32(2):218-221
    [3] D K Mynbawv,L L Scheiner,光纤通信技术[M],北京:科学出版社,2002,3:597-600
    [4] S.Gangopadhyay.S.N.Sarker, Laser diode to single-mode fiber excitation via hyperbolic lens on the fiber tip: Formulation of ABCD matrix and efficiency computation[J],Optics Communication,1996,Vol. 132,55-60
    [5]薛春荣,汪洁,吴文娟,光纤型光可变衰减器的探索,激光与红外[J],2005,35(4):35-37
    [6] T.Alder, A. Stohr, High-efficiency fiber-to-chip coupling using low-loss tapered single-mode fiber[J], IEEE Photonics Technology Letter, 12.8(2000), 1016-1017
    [7] Ching-Ting Lee,Mount-Learn Wu.Design and analysis of completely adiabatic tapered waveguides by conformal mapping,Journal of Lightwave Technology, 1997,Vol.15,No.2,403-410
    [8]于海鹰崔碧峰陈依新,一种与光纤高效耦合的新型大光腔大功率半导体激光器[J],物理学报,2007,56(07):13945-3949
    [9]周崇喜杜春雷谢伟民等,微光学元件阵列面阵LD光束整形及光纤耦合[J],红外与激光工程,2008:38(3),45-46
    [10]李强姜梦华雷訇等,工业用大功率固体激光加工系统[J],中国激光,2008,35(11):1847-1853
    [11]王宝华姜梦华惠勇凌等,大功率固体激光器高效率光纤耦合[J],中国激光, 2008,35(2):195-201
    [12] Wen Tzung, Lon A.Wang.Optical coupling method utilizing a lensed fiber integrated with a long-period fiber grating[J],Applied Optics, 2000,Vol. 39,No.25, 4490-4500
    [13] H.M.Presby, A.F.Benner, Laser micromachining of efficient fiber microlenses[J], Applied Optics,1990,Vol. 29, No. 18, 2692-2695
    [14]肖志刚,祝生祥,薛春荣,锥形光纤的偏振特性[J],应用光学, 2004,25 (6):22-25
    [15] Osamu Mitomi, Kazuo Kasaya.Design of a single-mode tapered waveguide for low-loss chip-to-fiber coupling[J],Journal of Quantum Electronics, 1994,Vol.30,No. 3, 1787-1793
    [16] H.M.Presby, C.A .Edwards, Near 100% efficient fiber microlenses[J], Electronics Letters, 1992, Vol.28, No.6, 582–584
    [17]马晓辉,史全林,徐莉,高功率半导体激光器光纤耦合模块[J],红外与激光工程, 2009,38(4):674-679
    [18] Jan Haes.C.M.Weinert.A Comparison between different propagation schemes for the simulation of tapered step index slab waveguides[J].Journal of Lightwave Technology, 1996, Vol.14, No.6, 1557-1569
    [1]刘旭肖金标孙小菡,楔形光纤与半导体多量子阱平面光波光路芯片的耦合分析[J],光学学报,2007,27(4):680-687
    [2]牛岗樊仲维王培峰等,楔形光纤排与半导体激光器耦合技术研究[J],半导体光电,2007,28(6):797-801
    [3]杨修文祝生祥江锐等,楔形光纤与半导体激光器的耦合研究[J],微纳电子技,2007,10:260-265
    [4]王波刘旭徐杰等,楔形光纤和InP基平面光波光路芯片的耦合分析[C],OFCIO2007,南京,301-309
    [5] Yang HM,An optimum approach for fabrication of tapered hemispherical-end fiber for laser module packaging[J], Electronic Materials,2001,30(3):271-274
    [6]刘旭肖金标孙小菡,特种光纤与平面光波光路芯片的耦合分析[J],光电子?激光(增刊),2007,27 (06):209-213
    [7]刘敬伟陈少武余金中,一种分析三维楔脊形光波导与光纤耦合的方法[J],物理学报,2005,54(01):6-12
    [8] Yi Yang,Jon Lee,Karl Reichard,Fabrication and implementation of a multi-to-single mode converter based on a tapered multimode fiber[J],Optics Communications,2005,249 (1):129-137
    [9]孔小健黄德修刘德明,用楔形柱面光纤微透镜耦合的1.3μmOSA组件[J],光子学报,2003,32(10):1201-1205
    [10]李鹏张全沈诗哲等,柱状楔形微透镜光纤与半导体激光器耦合效率研究[J],光学仪器, 2006, 28(3):52-56
    [11] Kumaran Sambanthan , Method to improve the coupling efficiency of a hemispherically lensed asymmetric tapered-corefiber[J],Optics Communications,2005,254(3):112-118
    [12]林彬曾晓东安毓英等,大功率激光二极管与多模光纤耦合效率分析[J],光子学报,2003,23(10):1200-1204
    [13] Hidehiko Yoda and Kazuo Shiraishi,A new scheme of a lensed fiber mploying a wedge-shaped graded-index fiber tip for the coupling between high-power laser diodes and single-mode fibers,IEEE,J of Lightwave Technology[J],2001, Vol.15, No.2, 1910-1917
    [14] A.R.Faidz and H.T.Chuah,H.Ghafouri-Shiraz,Coupling efficiency beween a laser diode and a conically lensed single-mode fiber[D],IEEE, 2000, 66-70
    [15] Tang Haiqing, Zhang Quan, Zhao Faying, Xue Hao, Cylindrical lensed fibers optimized for 980 nm pump laser diode coupling[D], Materials and Devices for Optical and Wireless Communications, Proceedings of SPIE, 2002,Vol.49, No.5, 157-161
    [16]崔兆云,曾晓东等,LD光场柱透镜准直技术研究[J],激光杂志,2003,24(4):14-15
    [17]梁一平,戴特力,圆柱透镜对半导体激光光束准直性能的改进[J],中国激光,2004,31(11):1305-1311
    [18]马惠萍,刘丽华等,光纤耦合问题的研究及球形端面光纤的应用[J],光电工程[J],2002,29(4):47-48
    [19] Zhang Quan,Tang haiqing , Angular Alignment tolerance for a 980nm pump laser diode coupled to a cylindrical lensed fiber[J],Acta Photonica Sinica,2003, Vol.32,No.1, 92-96
    [20] Achtenhagen M.,Mohrdiek S.,Pliska T.,Matuschek N.,Harder C., Hardy A.,L-I Characteristics of Fiber Bragg Crating Stabilized 980nm Pump Lasers.IEEE Photonics Technology Letters, 2003,Vol.13, No.5, 415-417
    [1]王田虎,王帆,王春霞等,一种特殊球形输出光纤的研制[J],激光杂志, 2007, 28(1):87-89
    [2]王福娟,齐晓玲,蔡志岗等,透镜光纤在光耦合中的应用研究,光纤与测试[J],2003, 10: 26-28
    [3]牛金星,毛海涛,李方正等,半导体激光器与变芯径光纤实用化耦合技术研究[J],激光与红外, 2005, 35(6): 424-426
    [4]陆颖,王吉有,徐晓轩等,微球与锥形光纤耦合系统的光学特性,南开大学学报(自然科学)[J],2000,4(33):6-10
    [5]薛春荣,祝生祥,肖志刚,锥形光纤间的耦合特性,光子学报[J],2004, 33(7):803-805
    [6] Yang HM,Anoptimum approach for fabrication of tapered hemispherical-end fiber for laser module packaging[J],Electronic Materials, 2001, Vol.30, No. 3, 271-274
    [7]刘雪峰,孙军强,黄德修,光纤放大器泵浦光高效率注入方式的研究[J],光通信技术,1994,18(1): 35-38
    [8]薛春荣,汪洁,吴文娟,光纤型光可变衰减器的探索,激光与红外[J],2005,35(4):35-37
    [9] Yi Yang, Jon Lee, Karl Reichard, Fabrication and implementation of a multi-to-single mode converter based on a tapered multimode fiber[J],Optics Communications, 2005, Vol.249,No. 1,129-137
    [10]杨瀛海,吴金生,俞本立,李伟,球形光纤端面效应及其应用[J],光学技术,1999,7(4):55-58
    [11]张正线等,高频半导体激光器组件及其特性的研究[J],光子学报,1995,24(1):26-29
    [12]马惠萍,刘丽华等,光纤耦合问题的研究及球形端面光纤的应用[J],光电工程[J],2002,29(4):47-48

© 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