光敏材料中若干弱光非线性光学效应研究
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摘要
上世纪60年代,激光的发明开拓了光学领域的一个全新分支—非线性光学。随后,弱光非线性光学逐渐从非线性光学中细分出来,成为一个重要的研究领域。各种具有弱光非线性的材料已经广泛应用于光存储、信息处理、信息传输等各个方面。进入本世纪,随着材料科学和交叉学科的发展,聚合物材料正在进入弱光非线性光学领域,并发挥着越来越重要的作用。
有机玻璃作为聚合物非线性光学材料中极其重要的一种,正在被越来越多的研究者关注。本文将以紫外敏感的有机玻璃为主要研究目标,对其反应机制和光致折射率变化性能做系统优化和深入探索。同时,尝试把量子力学领域的态密度理论引入到低折射调制的全息存储材料中,为研究低折射率调制材料的弱光非线性光学性质开创新的思路。
本文第一章介绍了弱光非线性光学及聚合物非线性材料的特点和性质,进而给出本文的研究内容和思路。
第二章介绍了制备紫外光敏有机玻璃的反应原理和详细过程。还对其光敏反应机制进行了研究,建立了光敏反应模型。
第三章,通过二波耦合实验测得了紫外光敏有机玻璃光致折射率变化的相关参数。还对光致聚合非局域性引起的复光栅的相位移进行了研究,得到了有机玻璃中记录微结构的更详细的信息。为有机玻璃的弱光非线性应用提供了实验基础。
第四章中,在弱光非线性材料中观测到了周期结构对荧光增强的调制效应,尝试把量子力学中常用的态密度理论引入低折射率调制的弱光非线性材料的实验结果分析中。具体方法是借助于重铬酸盐明胶薄膜的光敏感性,研究了低折射率调制的全息存储材料中光学周期结构对自发辐射的调制,并与态密度重新分布理论得到的结果进行对比,发现两者符合的很好。这在一方面证明了态密度理论在处理凝聚态物理领域问题的强大威力,也为研究光学材料的弱光非线性性质开辟了一个新的研究方法和思路。
第五章中对本文主要的研究成果进行了总结,并对以后的工作设想做了简单阐述。
In 1960's, nonlinear optics came into research as a branch of optics with the invention of lasers. The observation of photorefraction at weak light opened a new field of nonlinear optics. Many nonlinear optics materials with weak light were widely studied and used in optical storage, information processing, communication, and so on. In this century, with the rapid development of materials science and interdisciplinary communication, nonlinear polymeric materials have been paid more and more attention.
As one of the important nonlinear optical polymer materials, Polymethyl methacrylate (PMMA) has attracted many researchers to explorer its application in nonlinear optics with weak light. This dissertation deals with the reaction mechanics and optimization of the UV-light sensitivity, and also tries to introduce the redistribution theory of density of states to holographic media; this would give a new method to develop the application of nonlinear optics materials with relative low refractive index contrast.
In chapter one, the characteristics of the nonlinear optics at weak light and polymeric materials are given. The main research subject PMMA and the outline of the dissertation are also presented.
In chapter two, the fabrication detail and the reaction mechanics are introduced. The light polymerization model is built according to the research results of the absorption.
In chapter three, the parameters of light induced change of refractive index and absorption are measured. The detail of photo-polymerization is gotten by studying the phase shifts of the holographic gratings which come from the non-local photo-polymerization. The results of this chapter prove that PMMA has perfect optical characters and is optimistic to use in many optics fields.
In chapter four, the density of states is successfully introduced to analyze the redistribution of the photoluminescence in holographic media - dichromated gelatin, although it has a relatively low refractive index change. This successful attempt proves the power of density of state theory in solving problems in condensed matter physics and gives us a new way to develop the application of materials with low refractive index contrast in nonlinear optics with weak light.
In the last chapter, all the results of this dissertation are listed again and the further work and the possible application of PMMA and density of state theory are also discussed.
有机玻璃作为聚合物非线性光学材料中极其重要的一种,正在被越来越多的研究者关注。本文将以紫外敏感的有机玻璃为主要研究目标,对其反应机制和光致折射率变化性能做系统优化和深入探索。同时,尝试把量子力学领域的态密度理论引入到低折射调制的全息存储材料中,为研究低折射率调制材料的弱光非线性光学性质开创新的思路。
本文第一章介绍了弱光非线性光学及聚合物非线性材料的特点和性质,进而给出本文的研究内容和思路。
第二章介绍了制备紫外光敏有机玻璃的反应原理和详细过程。还对其光敏反应机制进行了研究,建立了光敏反应模型。
第三章,通过二波耦合实验测得了紫外光敏有机玻璃光致折射率变化的相关参数。还对光致聚合非局域性引起的复光栅的相位移进行了研究,得到了有机玻璃中记录微结构的更详细的信息。为有机玻璃的弱光非线性应用提供了实验基础。
第四章中,在弱光非线性材料中观测到了周期结构对荧光增强的调制效应,尝试把量子力学中常用的态密度理论引入低折射率调制的弱光非线性材料的实验结果分析中。具体方法是借助于重铬酸盐明胶薄膜的光敏感性,研究了低折射率调制的全息存储材料中光学周期结构对自发辐射的调制,并与态密度重新分布理论得到的结果进行对比,发现两者符合的很好。这在一方面证明了态密度理论在处理凝聚态物理领域问题的强大威力,也为研究光学材料的弱光非线性性质开辟了一个新的研究方法和思路。
第五章中对本文主要的研究成果进行了总结,并对以后的工作设想做了简单阐述。
In 1960's, nonlinear optics came into research as a branch of optics with the invention of lasers. The observation of photorefraction at weak light opened a new field of nonlinear optics. Many nonlinear optics materials with weak light were widely studied and used in optical storage, information processing, communication, and so on. In this century, with the rapid development of materials science and interdisciplinary communication, nonlinear polymeric materials have been paid more and more attention.
As one of the important nonlinear optical polymer materials, Polymethyl methacrylate (PMMA) has attracted many researchers to explorer its application in nonlinear optics with weak light. This dissertation deals with the reaction mechanics and optimization of the UV-light sensitivity, and also tries to introduce the redistribution theory of density of states to holographic media; this would give a new method to develop the application of nonlinear optics materials with relative low refractive index contrast.
In chapter one, the characteristics of the nonlinear optics at weak light and polymeric materials are given. The main research subject PMMA and the outline of the dissertation are also presented.
In chapter two, the fabrication detail and the reaction mechanics are introduced. The light polymerization model is built according to the research results of the absorption.
In chapter three, the parameters of light induced change of refractive index and absorption are measured. The detail of photo-polymerization is gotten by studying the phase shifts of the holographic gratings which come from the non-local photo-polymerization. The results of this chapter prove that PMMA has perfect optical characters and is optimistic to use in many optics fields.
In chapter four, the density of states is successfully introduced to analyze the redistribution of the photoluminescence in holographic media - dichromated gelatin, although it has a relatively low refractive index change. This successful attempt proves the power of density of state theory in solving problems in condensed matter physics and gives us a new way to develop the application of materials with low refractive index contrast in nonlinear optics with weak light.
In the last chapter, all the results of this dissertation are listed again and the further work and the possible application of PMMA and density of state theory are also discussed.
引文
1.李淳飞,非线性光学.2005,哈尔滨工业大学出版社.p.1-11.
2.石顺祥,陈国夫,赵卫,非线性光学.2003:西安:西安电子科技大学出版社.
3.钱士雄 朱荣毅,非线性光学.2001:复旦大学出版社.
4.叶佩弦,非线性光学.1999:北京:中国科学技术出版社.
5.沈元壤 顾世杰,非线性光学原理.1987:科学出版社.
6.Born,M.,E.Wolf,and A.Bhatia,Principles of optics.1980:Pergamon press New York.
7.Harris,S.E.,Electromagnetically induced transparency.Physics Today,1997.50(7):p.36-42.
8.Lukin,M.D.,et al.,Spectroscopy in Dense Coherent Media:Line Narrowing and Interference Effects.Physical Review Letters,1997.79(16):p.2959.
9.Hau,L.V.,et al.,Light speed reduction to 17 metres per second in an ultracold atomic gas.Nature,1999.397(6720):p.594-598.
10.Zibrov,A.S.,et al.,Experimental Demonstration of Laser Oscillation without Population Inversion via Quantum Interference in Rb.Physical Review Letters,1995.75(8):p.1499.
11.Akulshin,A.M.,S.Barreiro,and A.Lezama,Electromagnetically induced absorption and transparency due to resonant two-field excitation of quasidegenerate levels in Rb vapor.Physical Review A,1998.57(4):p.2996.
12.New,G.H.C.and J.F.Ward,Optical Third-Harmonic Generation in Gases.Physical Review Letters,1967.19(10):p.556.
13.G(u|¨)nter,P.and J.Huignard,Photorefractive Materials and Their Applications.1989:Springer.
14.吴强,若干弱光非线性光学效应及其应用的研究.南开大学博士论文,2006.
15.Monremezzani,G.,Holography and optical phase conjugation 2002.
16.Eldada,L.Telecom optical componentry:past,present,future.2001.
17.Yao,H.,O.Radmer,and C.Zawadzki,Polymer Waveguide Devices:Status and Trends.2002,Fraunhofer Institute for Communication Technology,Heinrich-Hertz-Institut.
18.Ma,H.,A.Jen,and L.Dalton,Polymer-based optical waveguides:materials,processing,and devices.Advanced Materials,2002.14(19):p.1339-1365.
19.Hagen,R.and T.Bieringer,Photoaddressable polymers for optical data storage.Advanced Materials,2001.13(23):p.1805-1810.
20.Eickmans,J.,et al.,Photoaddressable polymers:a new class of materials for optical data storage and holographic memories.Jpn.J.Applo Phys,1999.38:p.1835-1836.
21.Wong,C.,Polymers for electronic andphotonic applications.1993:Academic Press.
22.Garner,S.,et al.,Vertically integrated waveguide polarization splitters usingpolymers,leee Photonics Technology Letters,1999.11(7):p.842-844.
23.Zhou,M.,Low-loss polymeric materials for passive waveguide components in fiber optical telecommunication.Optical Engineering,2002.41:p.1631-1643.
24.叶佩弦 司金海,有机聚合物的非线性光学.物理,2000.29:p.344-348.
25.Bloembergen,N.,Nonlinear optics of polymers:fundamentals and applications.Journal of Nonlinear Optical Physics and Materials,1996.5(1):p.1-7.
26.禹忠 汪敏强,光通讯波段聚合物光波导材料的研究进展.化学通报,2001.64(001):p.5-10.
27.Johnson,S.A.,P.J.Ollivier,and T.E.Mallouk,Ordered mesoporous polymers of tunable pore size from colloidal silica templates.Science,1999.283(5404):p.963-965.
28.Kageyama,K.,J.Tamazawa,and T.Aida,Extrusion polymerization:catalyzed synthesis of crystalline linear polyethylene nanofibers within a mesoporous silica.Science,1999.285(5436):p.2113.
29.Smith,A.,et al.,High-energy cryogenic blending and compatibilizing of immiscible polymers.Advanced Materials,1999.11(15).
30.Kobayashi,T.,et al.,Relaxation dynamics of photoexcitations in polydiacetylenes and polythiophene.Journal of the Optical Society of America B(Optical Physics),1990.7(8):p.1558-1578.
31.Chen,A.G.and D.J.Brady,Real-time holography in azo-dye-doped liquid crystals.OPTICS LETTERS,1992.17(6):p.441-443.
32.Blau,W.,et al.,Reverse saturable absorption in tetraphenylporphyrins.Optics Communications,1985.56(1):p.25-29.
33.Tutt,L.W.and A.Kost,Optical limiting performance of C/sub 60/and C/sub 70/solutions.Nature, 1992.356(6366):p.225-226.
34.Charra,F.,et al.,Picosecond light-induced noncentrosymmetry in a dye solution.Physical Review Letters,1992.68(16):p.2440-2443.
35.Charra,F.,et al.,Light-induced second-harmonic generation in azo-dye polymers.Optics Letters,1993.18(12):p.941-943.
36.Si-De,D.,G.Shang-Qing,and X.Zhi-Zhan,Generating fractional revivals from a simple optical system.Optics Communicationst Optics Communications,1997.133(1-6):p.147-52.
37.Si-de,D.,et al.,Production of two-mode optical Schrodinger catlike states via Kerr nonlinearity.Optics Communications Optics Communications,1997.138(1-3):p.193-9.
38.Rodenberger,D.C.,J.R.Heflin,and A.F.Garito,Excited-state enhancement of optical nonlinearities in linear conjugated molecules.Nature,1992.359(6393):p.309-311.
39.李英兰 等,C60-PMMA.复合膜的纳米结构研究.无机材料学报,2002.
40.Qiuo,R.J.,Fabrication of AQ/PMMA Photopolymer and Its Mechanism for Forming Volume Gratings 2005.
41.Lundquist,P.M.,et al.,Organic Glasses.A New class of Photorefractive Materials.Science,1996.274.
42.Andreas,B.,et al.,Photorefractive lithography with synchrotron light in polymethyl methacrylate.Appl.Phys.Lett,2003.83.
43.冯忠耀 等,偶氮苯共聚PMMA薄膜的老致双折射特性研究.光子学报,2004.33.
44.付申成 等、泵浦光偏振态的改变对So/PMMA薄膜光致双折射的影响.物理实验,2005.25.
45.Wochnowski,C.,S.Meter,and F.Vollertsen,Surface topography of planar PMMA grating structures produced by the UV-laser based phase mask method.Microsyst Technol,2006.12.
46.Rupp,R.A.,et al.,Bleaching kinetics of indoly-benzylfulgimide in PMMA.physica status solidi(b),2007.244(4):p.1363-1375.
47.马占镖,甲基丙烯酸树酯及其应用.2001:化学工业出版社.
48.珊瑚化工厂编著,有机玻璃及同类聚合物.1975:上海人民出版社.
49.Plexiglas Acrylic Sheet Family.2008;Available from:http://www.plexiglas.com/acrylicsheet/acrvlicsheetfamily#9.
50.Kutz,M.,Handbook of materials selection.2002.
51.Pepper,T.Seeing the Light,Illumination.2008;Available from:http://www.terrvpepper.com/lights/closeups/illumination/index.htm.
52.Zonk and Jcatcw.Plexiglass-like DVD to Hold 1TB of Data 2007;Available from:http://slashdot.org/article.pl?sid=07/12/21/204208&from=rss.
53.Hamzah,T.,Y.Bhd,and R.Hyde,Light Pipes:An Innovative Design Device for Bringing Natural Daylight and Illumination into Buildings with Deep Floor Plan(Patent Applied).
54.Lighting up your workplace—Queensland student pipes light to your office cubicle.2005;Available from:http://www.scienceinpublic.com/freshinnovators/2005/Veronica/veronicagarciahansen.htm.
55.Miller,Review of Orthopaedics.p.129.
56.in American Journal of Neuroradiology.2002.p.601-604.
57.Cabak,I.,Transient Radiation in Polymethyl Methacrylate.Czechoslovak Journal of Physics,1969.19(4):p.520-&.
58.Cabak,I.,Structure of Transient Radiation Generation by Electrons Deep in Polymethyl Methacrylate.Czechoslovak Journal of Physics,1969.19(10):p.1290-&.
59.Friedman,E.A.,A.J.Ritger,and R.D.Andrews,Brillouin Scattering Near Glass Transition of Polymethyl Methacrylate.Journal of Applied Physics,1969.40(11):p.4243-&.
60.Chen,P.J.,M.E.Gurtin,and E.K.Walsh,Shock Amplitude Variation in Polymethyl Methacrylate for Fixed Values of Strain Gradient.Journal of Applied Physics,1970.41(8):p.3557-&.
61.Choy,C.L.,R.G.Hunt,and G.L.Salinger,Specific Heat of Amorphous Polymethyl Methacrylate and Polystyrene Below 4-Degrees K.Journal of Chemical Physics,1970.52(7):p.3629-&.
62.Kimmel,R.M.and D.R.Uhlmann,Effects of High Pressure on Amorphous Polymers-Densification of Polymethyl Methacrylate.Journal of Applied Physics,1970.41(7):p.2917-&.
63.Kimmel,R.M.and D.R.Uhlmann,Effects of High Pressure on Amorphous Polymers-Densification of Polymethyl Methacrylate 2.Annealing of Densified Polymethyl Methacrylate.Journal of Applied Physics,1971.42(5):p.1892-&.
64.Kimmel,R.M.and D.R.Uhlmann,Effects of High Pressure on Amorphous Polymers-Densification of Polymethyl Methacrylate 3.Thermodynamic Properties of Densified Polymethyl Methacrylate.Journal of Applied Physics,1971.42(12):p.4917-&.
65.Kimmel,R.M.and D.R.Uhlmann,Activation-energy Spectra for Retraction of Hot-stretched Polystyrene and Shear Creep in Polymethyl Methacrylate.Journal of Applied Physics,1971.42(12):p.4926-&.
66.Stephens,R.B.,G.L.Salinger,and Cieloszy.Gs,Thermal-Conductivity and Specific-Heat of Non-Crystalline Solids-Polystyrene and Polymethyl Methacrylate.Physics Letters A,1972.A 38(3):p.215-&.
67.Nunziato,J.W.and K.W.Schuler,Evolution of Steady Shock-waves on Polymethyl Methacrylate.Journal of Applied Physics,1973.44(10):p.4774-4773.
68.Spells,S.J.and I.W.Shepherd,Low-Frequency Raman Dides in Solid Amprohous Polystyrene and Polymethyl Methacrylate.Journal of Chemical Physics,1977.66(4):p.1427-1433.
69.Liu,W.T.,et al.,Poly(methyl Methacrylate Resist Sensitivity Enhancement in A-Ray-Lithography by Insitu Polymerization.Applied Physics Letters,1984.44(10):p.973-975.
70.Mladenov,G.M.,B.Emmoth,and M.Braun,Some Effects at Ion-Beam Modification of Polymethyl Methacrylate.Vacuum,1984.34(5):p.551-553.
71.Muto,J.and Y.Kobayashi,Photobleaching Behaviors of Rhodamine-6G Diffused in Polymethyl Methacrylate and in the Copolymer of Methyl-Methacrylate with Methacrylic-Acid.Physica Status Solidi a-Applied Research,1984.84(1):p.K29-K33.
72.Marotz,J.,Holographic Storage in Sensitized Polymethyl Methacrylate Blocks.Applied Physics B-Photophysics and Laser Chemistry,1985.37(4):p.181-187.
73.Mladenov,G.M.,et al.,Ion-beam Impace and Penetration of Polymethyl Methacrylate.Journal of Applied Physics,1985.58(7):p.2534-2538.
74.Kim,H.,et al.,Ultrafast Imaging of Optical-Damage Dynamics and Laser-Produced Wave-Propagation in Polymethyl Methacrylate.Journal of Applied Physics,1988.64(6):p.2955-2958.
75.Srinivasan,R.and B.Braren,Ultraviolet-Laser Ablation and Etching of Polymethyl Methacrylate Sensitized with an Organic Dopant.Applied Physics a-Materials Science & Processing,1988.45(4):p.289-292.
76.Srinivasan,R.,Photokinetic Etching of Polymethyl Methacrylate Films by Continuous Wave Ultraviolet-laser Radiation.Journal of Applied Physics,1991.70(12):p.7588-7593.
77.Bozhevolnyi,S.I.,I.V.Potemkin,and V.B.Svetovoy,Direct Writing in Polymethyl Methacrylate Filme Using Near-Ultraviolet Light of Ar+ Laser.Journal of Applied Physics,1992.71(4):p.2030-2032.
78.Redel,T.,et al.,Schlieren Diagnostics of Pulsed Electron-Beam Ablation of Polymethyl Methacrylate.Applied Physics a-Materials Science & Processing,1992.54(6):p.520-522.
79.Yang,Z.and H.J.Geise,Preparation and Electrical-Conductivity of Blends Consisting of Modified Wittig Poly(para-Phenylene Vinylene),Iodine and Polystyrene,Polymethyl Methacryalte or Polycarbonate.Synthetic Metals,1992.47(1):p.105-109.
80.Ji,W.,et al.,Resonant Optical Nonlinearity of Fullerenes in Freestanding Polymethyl Methacrylate Films.Journal of Applied Physics,1993.74(6):p.3669-3672.
81.Khare,P.K.,M.S.Gaur,and A.P.Srivastava,Polarization and Depolarization Studies in Polymethyl Methacrylate-Polyvinyl Pyrrolidone Polyblend Films.Indian Journal of Pure &Applied Physics,1993.31(2):p.102-105.
82.May,K.B.,et al.,The Shear-Strength of Polymethyl Methacrylate Bonded to Titanium Partial Denture Framework Material.Journal of Prosthetic Dentistry,1993.70(5):p.410-413.
83.Michaeli,W.,et al.,Broad Range Variation in Surface-Tension by Plasma-Polymerized Coatings on Polymethyl Methacrylate.Surface & Coatings Technology,1993.59(1-3):p.338-341.
84.Srinivasan,R.,Ablation of Polymethyl Methacrylate Films by Pulsed(ns) Ultraviolet and Infrared (9.17-MU-M) Lasers-A Comparative-Study by Ultrafast Imaging.Journal of Applied Physics,1993.73(6):p.2743-2750.
85.Wojcik,A.and S.Muto,Some Optical-Properties of Polymethyl Methacrylate Fibers Doped with Methacrylate Monomers-Derivatives of Anthracene.Nonconducting Photopolymers and Applications,1993.1774:p.58-68.
86.Bozhevolnyi,S.I.and I.V.Potemkin,Dynamica of Ablation of Polymethyl Methacrylate Films by Near-Ultraviolet Light of an Ar+ Laser.Journal of Physics D-Applied Physics,1994.27(1):p.19-24.
87.Guha,S.,et al.,Photoluminescence and Raman Studies of Porous Silicon in Polymethyl Methacrylate.Applied Physics Letters,1994.64(5):p.613-615.
88.Kulanthaisami,S.,et al.,Dielectric and ac Conduction Properties of Solution-Grown Polymethyl Methacrylate Thin-Films.Indian Journal of Pure & Applied Physics,1994.32(9):p.783-785.
89.Marotz,J.,Holographic storage in Sensitized Polymethyl Methacrylate Blocks.Appl.Phys.B,1985.37.
90.Bolle,M.,et al.,Photochemically Assisten Laser Ablation of Doped Polymethyl Methacrylate.Applied Surface Science,1990.46(1-4):p.279-283.
91.Srinivasan,R.,B.Braren,and K.G.Casey,Nature of Incubation Pulses in the Ultraviolet-Laser Ablation of Polymethyl Methacrylate.Journal of Applied Physics,1990.65(4):p.1842-1847.
92.Maker,P.D.and R.E.Muller,Phase Holograms in Polymethyl Methacrylate.Journal of Vacuum Science & Technology B,1992.10(6):p.2516-2519.
93.Li,Z.F.,Z.Y.Yang,and R.F.Xiao,Visible photoluminescence from hydrogenated amorphous carbon films prepared by pulsed laser ablation of polymethyl methacrylate(PMMA).Applied Physics a-Materials Science & Processing,1996.63(3):p.243-246.
94.Varier,G.K.,et al.,Electron density determination of laser induced plasma from polymethyl methacrylate using phaseshift detection technique.Modern Physics Letters B,1996.10(6):p.235-239.
95.Belsare,N.G.and V.S.Deogaonkar,Electrical conductivity of iodine doped polyblend films of polystyrene(PS) and polymethyl methacrylate(PMMA).Indian Journal of Pure & Applied Physics,1998.36(5):p.280-289.
96.Chen,G.H.and G.B.Ma,Crystallization and orientation of C-60 from C-60/polymethyl methacrylate films.Applied Physics Letters,1998.72(25):p.3294-3296.
97.Drechsler,D.,A.Karbach,and H.Fuchs,Nanoindentation on polycarbonate polymethyl methacrylate Blends.Applied Physics a-Materials Science & Processing,1998.66:p.S825-S829.
98.Grebenkin,S.Y.and B.V.Bol'shakov,Light induced cis-trans isomerization of azo compounds in polymethyl methacrylate.Chemical Physics,1998.234(1-3):p.239-248.
99.Ma,G.B.,Y.H.Yang,and G.H.Chen,Anomalous photoluminescence from C-60 polymethyl methacrylate films.Materials Letters,1998.34(3-6):p.377-382.
100.Semkin,N.D.and K.E.Voronov,Conductance of shock-compressed metal-insulator-metal structures based on polymethyl methacrylate.Technical Physics,1998.43(8):p.934-937.
101.Vasil'ev,S.V.,et al.,Changes in the structure of polymethyl methacrylate caused by irradiation with millisecond laser pulses.Quantum Electronics,1998.25(11):p.997-1001.
102.Rajulu,A.V.,et al.,Infrared spectroscopic investigation of polymethyl methacrylate/polyvinyl chloride blend films irradiated by a Si-28 ion beam.Nuclear Instruments & Methods in Physics Research Section B-Beam Interactions with Materials and Atoms,1999.156(1-4):p.195-200.
103.Rubiolo,G.H.,et al.,Characterization of gamma-irradiated polymethyl methacrylate by means of mechanical properties and positron annihilation lifetime spectroscopy.Physical Review B,1999.60(6):p.3792-3798.
104.Fink,D.,et al.,Ion-induced redistribution of palladium in polymethyl methacrylate.Nuclear Instruments & Methods in Physics Research Section B-Beam Interactions with Materials and Atoms,2000.166:p.610-614.
105.Ma,G.B.,et al.,Orientation and photoluminescence of C-60 crystallites in C-60-polymethyl methacrylate films.Thin Solid Films,2000.375(1-2):p.292-295.
106.Popravko,T.S.,Photodepolymerization kinetics in polymethyl methacrylate films above the vitrification temperature.Chemical Physics Reports,2000.18(12):p.2293-2312.
107.范希智,姜良广,分散红54掺杂的PMMA聚合物薄膜全光极化的研究.光学仪器,2003.25.
108.任常愚,孙秀冬,杨志永,聚合物分散液晶PMMA光析变特性的实验研究.液晶与显示,2003.18.
109.范希智,分散橙25掺杂的聚合物PMMA薄膜全光极化的研究.激光与红外,2004.34.
110.范希智,分散红73掺杂的聚合物PMMA薄膜全光极化的研究.光学仪器,2004.26.
111.Jones,G.,et al.,Fluorescence and lasing properties of benzo-fused pyrromethene dyes in polymethyl methacrylate) solid host media.Solid State Lasers Xi,2002.4630:p.65-74.
112.Mekaru,H.,Y.Utsumi,and T.Hattori,Effects of synchrotron radiation spectrum energy on polymethyl methacrylate photosensitivity to deep X-ray lithography.Japanese Journal of Applied Physics Part 1-Regular Papers Short Notes & Review Papers,2003.42(6B):p.3807-3810.
113.Bai,M.and F.Pease,Electron beam induced conductivity in polymethyl methacrylate,polyimide,and SiO2 thin films.Journal of Vacuum Science & Technology B,2004.22(6):p.2907-2911.
114.Dutta,P.and S.K.De,Electrical properties of polypyrrole doped with beta-naphthalenesulfonicacid and polypyrrole-polymethyl methacrylate blends(vol 139,pg 201, 2003).Synthetic Metals,2004.143(1):p.141-141.
115.Assael,M.J.,et al.,Thermal conductivity of polymethyl methacrylate(PMMA) and borosilicate crown glass BK7.International Journal of Thermophysics,2005.26(5):p.1595-1605.
116.Elzein,T.,et al.,A model of chain folding in Polycaprolactone-b-Polymethyl Methacrylate diblock copolymers.Thin Solid Films,2005.483(1-2):p.388-395.
117.Klemberg-Sapieha,J.E.,et al.,Tailoring the adhesion of optical films on polymethyl-methacrylate by plasma-induced surface stabilization.Thin Solid Films,2005.476(1):p.101-107.
118.Philip,K.A.,et al.,Photoacoustic study on the photostability of polymethyl methacrylate films doped with Rhodamine 6G-Rhodamine B dye mixture system.Journal of Physics D-Applied Physics,2005.38(16):p.2904-2909.
119.Zhu,X.L.,et at.,Analysis of x-ray photoelectron spectroscopy of polymethyl methacrylate etched by a KrFexcimer laser.Chinese Physics Letters,2005.22(6):p.1526-1529.
120.Choi,H.W.,et al.,Effects of BaTiO3 on dielectric behavior of BaTiO3-Ni-polymethyl methacrylate composites.Applied Physics Letters,2006.89(13).
121.Yuan,D.J.and S.Das,Experimental and theoretical analysis of direct-write laser micromachining of polymethyl methacrylate by CO2 laser ablation.Journal of Applied Physics,2007.101(2).
122.Capozzi,C.J.,et al.,Impedance spectroscopy and optical characterization of polymethyl methacrylate/indium tin oxide nanocomposites with three-dimensional Voronoi microstructures.Journal of Applied Physics,2008.104(11).
123.Capozzi,C.J.,et al.,Impedance spectroscopy and optical Characterization of polymethyl methacrylate/indium tin oxide nanocomposites with three-dimensional Voronoi microstructures.Journal of Applied Physics,2008:p.114902(10 pp.).
124.Dixit,M.,et al.,Mechanical characterization of polymethyl methacrylate and polycarbonate blends.AIP Conference Proceedings,2008:p.311-15.
125.Dixit,M.,et al.,Mechanical characterization of polymethyl methacrylate and Polycarbonate blends.Thermophysical Properties of Materials and Devices,2008:p.311-315.
126.Dubey,P.K.,R.Bajpai,and J.M.Keller,Structural,morphological and microhardness characterization in polymer complex of laser dye rhodamine(Rh6G) doped polymethyl methacrylate.Microsystem Technologies-Micro-and Nanosystems-Information Storage and Processing Systems,2008.14(8):p.1165-1171.
127.Fan,R.W.,et al.,Solid state dye lasers based on coumarin 440 and pyrromethene 567 codoped polymethyl methacrylate.Chinese Physics Letters,2008.25(5):p.1881-1883.
128.Samantaray,C.B.and J.T.Hastings,The effect of thin metal overlayers on the electron beam exposure of polymethyl methacrylate.Journal of Vacuum Science & Technology B,2008.26(6):p.2300-2305.
129.Suwanprateeb,J.,W.Suvannapruk,and R.Sanngam,Self-reinforcement of three dimensionally printed polymethyl methacrylate.Polymer Testing,2008.27(6):p.711-716.
130.Thomas,K.J.,et al.,Raman spectra of polymethyl methacrylate optical fibres excited by a 532 nm diode pumped solid state laser.Journal of Optics a-Pure and Applied Optics,2008.10(5).
131.Tsai,T.L.,et al.,Effects of microwave-assisted digestion on decomposition behavior of polymethyl methacrylate(PMMA).Materials Chemistry and Physics,2008.108(2-3):p.382-390.
132.Zhi,C.Y.,et al.,Mechanical and Thermal Properties of Polymethyl Methacrylate-BN Nanotube Composites.Journal of Nanomaterials,2008.
133.Wilson,L.R.and B.S.Richards,Measurement method for photoluminescent quantum yields of fluorescent organic dyes in polymethyl methacrylate for luminescent solar concentrators.Applied Optics,2009.48(2):p.212-220.
134.Franke,H.,Optical recording of refractive-index patterns in doped poly-(methyl methacrylate) films.Appl.Opt.,1984.23.
135.Tomlinson,W.and E.Chandross,Organic photochemical refractive-index image recording systems.Adv.Photochem,1980.12:p.201-281.
136.Rupp,R.A.,J.Hehmann,and R.Matull,Neutron Diffraction from Photoinduced Gratings in a PMMA Matrix Phys.Rev.Lett.,1990.64.
137.Dreb,P.,T.Kardinahl,and H.Franke,Volume Phase Gratings in DMPA-Doped Polymers.Appl.Phys.A,1994.58.
138.Scully,P.J.,S.Caulder,and R.Bartlett,UV-Laser Photo-induced Refractive Index Changes in Poly Methyl Methacrylate and Plastic Optical Fibres for Application as Sensors and Devices.Science-Lasers for Science Facility-Physics,2000.
139.Havermeyer,F.,et al.,Absorption changes under UV illumination in doped PMMA.Appl.Phys.B,2001.72:p.201-205.
140.Junge,K.and G.H(u|¨)bner,Fotografische Chemic.1972:Fotokinoverl.
141.Junge,K.and G.H(u|¨)bner,Fotografische Chemie:A us Theorie und Praxis.1986:Fotokinoverlag.
142.Shankoff,T.,Phase Holograms in Dichromated Gelatin.Appl.Opt,1968.7:p.2101-2105.
143.Sandner,M.R.and C.L.Osborn,Photochemistry of 2,2-dimethoy-2-phenylacetophenone-triplet detection via "spin memory".Tetrahedron Letters,1974.15:p.415-418.
144.Allen,P.and C.Patrick,Kinetics and mechanisms of polymerization reactions.1974:Ellis Horwood.
145.Kukhtarev,N.,et el.,Holographic storage in electrooptic crystals,i.steady state.Ferroelectrics,1979.22(1):p.949-960.
146.Kukhtarev,N.,et el.,Holographic storage in electrooptic crystals.Ⅱ.beam coupling—light amplification.Ferroelectrics,1979.22(1):p.961-964.
147.乔海军,掺杂铌酸锂晶体中弱光非线性光学效应及其应用的研究.2003.
148.Kogelnik,H.,Coupled wave theory for thick hologram gratings.The Bell System Technical Journal,1969.48(9):p.2909-2947.
149.刘思敏,郭儒,许京军,光折变非线性光学及其应用.2004,科学出版社.p.101-102.
150.吴仲康 等,掺铁铌酸锂的光致光衍射.物理学报,1987.36(9):p.1203-1208.
151.Liu,W.H.,et al.,Conical diffraction in LiNbO/sub 3/:Fe crystal.Optics Communications,1987.64(2):p.191-194.
152.Zhang,J.and L.Liu,Optical logical operation and moire pattern.Optics Communications,1988.66(4):p.179-182.
153.Voronov,V.,et al.,Photoinduced light scattering in cerium-doped barium strontium niobate crystals.Quantum Electronics,1980.10(11 ):p.1346-1349.
154.Armitage,D.and J.Thackara.Liquid crystal differentiating spatial light modulators.1986.
155.Kwong,S.,et al.,Phase of phase conjugation and its effect in the double phase-conjugate resonator.J.Opt.Soc.Am.A,1986.3:p.3-1.
156.Staebler,D.and J.Amodei,Coupled-Wave Analysis of Holographic Storage in LiNbO 3.Journal of Applied Physics,1972.43.
157.Sutter,K.and P.Gunter,Photorefractive gratings in the organic crystal 2-cyclooctylamino-5-nitropyridine doped with 7,7,8,8-tetracyanoquinodimethane.J.Opt.Soc.Am.B,1990.7:p.2274-2278.
158.Kahmann,F.,Separate and simultaneous investigation of absorption gratings and refractive-index gratings by beam-coupling analysis.J.Opt.Soc.Am.A,1993.10:p.1562-1569.
159.Kondilenko,V.,et al.,Diffraction of Coupled Waves and Determination of Phase Mismatch Between Holographic Grating and Fringe Pattern.Journal of Modern Optics,1979.26(2):p.239-251.
160.Gehrtz,M.,J.Pinsl,and C.Br?uchle,Sensitive detection of phase and absorption gratings:Phase-modulated,homodyne detected holography.Applied Physics B:Lasers and Optics,1987.43(2):p.61-77.
161.Garcia,P.M.,L.Cescato,and J.Frejlich,Phase-shift measurement in photorefractive holographic recording.Journal of Applied Physics,1989.66(1):p.47-49.
162.Huignard,J.and A.Marrakchi,Coherent signal beam amplification in two-wave mixing experiments with photorefractive BSO crystals.Opt.Commun,1981.38(4):p.249-254.
163.Rupp,R.A.,Microphotometric Investigations of Thick Refractive Index Gratings in Photorefractive Crystals Appl.Phys.B,1986.41.
164.Rupp,R.,A.Maillard,and J.Walter,Impact of the sublinear photoconductivity law on the interpretation of holographic results in BaTiO 3.Applied Physics A:Materials Science &Processing,1989.49(3):p.259-268.
165.Zha,M.Z.,P.Amrhein,and P.Gunter,Measurement of Phase Shift of Photorefractive Gratings by a Novel Method IEEE Journal of Quantum Electronics 1990.26(4).
166.McMichael,I.and P.Yeh,Phase shifts of photorefractive gratings and phase-conjugate waves.Opt.Lett.,1987.12(1).
167.Moskowitz and M.A,A Course in Complex Analysis in One Variable 2002,World Scientific Publishing Co.p.7.
168.Wei,L.,et al.,Photopolymerization-lnduced Two-Beam Coupling and Light-Induced Scattering in Polymethyl Methacrylate.Chinese Physics Letter,2008.25(8):p.2857-2859.
169.Havermeyer,F.,et al.,Nondestructive Resolution of Higher Harmonics of Light-Induced Volume Gratings in PMMA with Cold Neutrons.Phys.Rev.Lett.,1998.80.
170.Ibach,H.and H.L(u|¨)th,Solid-State Physics:An Introduction to Principles of Materials Science.2003:Springer.
171.Anderson,R.,Germanium-Gallium Arsenide Heterojunctions.IBM J.Res.Develop,1960.4:p.283.
172.Kittel,C.,Introduction to solid state physics.7 ed.1996.
173.Mattis,D.,The Many-body Problem:An Encyclopedia of Exactly Solved Models in One Dimension.1993:World Scientific.
174.Inoue,K.and K.Ohtaka,Photonic Crystals:Physics,Fabrication,and Applications.2004:Springer.
175.Martin,R.,Electronic Structure:Basic Theory and Practical Methods.2004:Cambridge University Press.
176.ORDEJON,P.,Order-N tight-binding methods for electronic-structure and molecular dynamics.Computational materials science,1998.12(3):p.157-191.
177.Fermi,E.,Sulla quantizzazione del gas perfetto monoatomico.Rend.Lincei,1926.3:p.145.
178.Dirac,P.,On the Theory of Quantum Mechanics.Proceedings of the Royal Society of London.Series A,1926.112(762):p.661-677.
179.Pankove,J.,Optical Processes in Semiconductors.1975:Courier Dover Publications.
180.FLORESCU,M.,Photonic Crystals-A New Frontier in Modern Optics.2007.
181.Johnson,S.G.,Photonic Crystals-Periodic Surprises in Electromagnetism 2007.
182.Yablonovitch,E.,Inhibited Spontaneous Emission in Solid-State Physics and Electronics.Phys.Rev.Lett.,1987.58(20).
183.John,S.,Strong localization of photons in certain disordered dielectric superlattices.Phys.Rev.Lett.,1987.58(23).
184.Rayleigh,J.,On the remarkable phenomenon of crystalline reflexion described by Prof.Stokes.Phil.Mag,1888.26:p.256-265.
185.Iga,K.,Surface-emitting laser-its birth and generation of new optoelectronics field.IEEE Journal of Selected Topics in Quantum Electronics,2000.6(6):p.1201-1215.
186.Bykov,V.,Spontaneous Emission in a Periodic Structure.Soviet Journal of Experimental and Theoretical Physics,1972.35.
187.Bykov,V.,Spontaneous emission from a medium with a band spectrum.Quantum Electronics,1975.4(7):p.861-871.
188.Yablonovitch,E.,T.Gmitter,and K.Leung,Photonic band structure:The face-centered-cubic case employing nonspherical atoms.Physical Review Letters,1991.67(17):p.2295-2298.
189.Krauss,T.F.,R.M.DeLaRue,and S.Brand,Two-dimensional photonic-bandgap structures operating at near infrared wavelengths.Nature,1996.383(6602):p.699-702.
190.Homepage of Nanoscribe-a spin-off enterprise of the Karlsruhe Institute of Technology 2008;Available from:http://www.nanoscribe.de/.
191.Pieranski,P.,Colloidal Crystals.Contemporary Physics,1983.24(1):p.25-73.
192.Greer,R.T.,Submicron Structure of Amorphous Opal.Nature,1969.224(5225):p.1199-&.
193.Hiltner,P.A.and I.M.Krieger,Diffraction of Light by Ordered Suspensions.Journal of Physical Chemistry,1969.73(7):p.2386-&.
194.Vukusic,P.and J.R.Sambles,Photonic structures in biology.Nature,2003.424(6950):p.852-855.
195.Kinoshita,S.,S.Yoshioka,and K.Kawagoe,Mechanisms of structural colour in the Morpho butterfly:cooperation of regularity and irregularity in an iridescent scale.Proceedings of the Royal Society of London Series B-Biological Sciences,2002.269(1499):p.1417-1421.
196.Kunz,K.and R.Luebbers,The Finite Difference Time Domain Method for Electromagnetics.1993:CRC Press.
197.Taflove,A.and S.Hagness,Computational electrodynamics:the finite-difference time-domain method.2000:Artech House.
198.Johnson,S.G.and J.D.Joannopoulos,Block-iterative frequency-domain methods for Maxwell's equations in aplanewave basis.Optics Express,2001.8(3):p.173-190.
199.Johnson,S.G.,J.D.Joannopoulos,and M.Soljacic.Nanostructures and Computation Wiki.2008;Available from:http://ab-initio.mit.edu/wiki/index.php/Main Page.
200.Joannopoulos,J.D.,R.D.Meade,and J.N.Winn,Photonic Crystals:Molding the Flow of Light.2ed.2008.
201.Park,H.-G.,et al.,Electrically Driven Single-Cell Photonic Crystal Laser.Science,2004.305.
202.Gratzel,M.,Photoelectrochemical cells.Nature,2001.414.
203.Martorell,J.and N.M.Lawandy,Observation of inhibited spontaneous emission in a periodic dielectric structure.Phys.Rev.Lett.,1990.65(15):p.1877-1880.
204.Tong,B.Y.,et al.,Fluorescence-lifetime measurements in monodispersed suspensions of polystyrene particles.J.Opt.Soc.Am.B,1993.10(2):p.356-359.
205.Yamasaki,T.and T.Tsutsui,Spontaneous emission from fluorescent molecules embedded in photonic crystals consisting of polystyrene microspheres.Appl.Phys.Lett,1998.72(16):p.1957-1959.
206.Blanco,A.,et al.,CdS photoluminescence inhibition by a photonic structure.Appl.Phys.Lett,1998.73(13):p.1781-1783.
207.Schriemer,H.P.,et al.,Modified spontaneous emission spectra of laser dye in inverse opal photonic crystals.Physical Review A,2001.63(1).
208.Romanov,S.G.,et al.,Emission in a SnS2 inverted opaline photonic crystal.Appl.Phys.Lett,2001.79(6).
209.Lin,Y.,et al.,Photonic pseudo-gap-based modification of photoluminescence from CdS nanocrystal satellites around polymer microspheres in a photonic crystal Appl.Phys.Lett,2002.81(17).
210.J.Valenta,et al.,Photonic band-gap effects on photoluminescence of silicon nanocrystals embedded in artificial opals.J.Appl.Phys.,2003.93(8).
211.Zhou,J.,et al.,Photoluminescence of ZnS:Mn embedded in three-dimensional photonic crystals of submicron polymer spheres.Appl.Phys.Lett,2000.76(24).
212.Bjorknas,K.,P.Raynes,and S.Gilmour,Effects of molecular shape on the photoluminescence of dyes embedded in a chiral polymer with a photonic band gap.Journal of Materials Science:Materials in Electronics,2003.14.
213.Bechger,L.,P.Lodahl,and W.L.Vos,Directional Fluorescence Spectra of Laser Dye in Opal and Inverse Opal Photonic Crystals.J.Phys.Chem.B,2005.109(20).
214.Vlasov,Y.A.,et al.,Enhancement of optical gain of semiconductors embedded in three-dimensional photonic crystals.Appl.Phys.Lett,1997.71(12).
215.Yoshino,K.,et al.,Observation of inhibited spontaneous emission and stimulated emission of rhodamine 6G in polymer replica of synthetic opal.Appl.Phys.Lett,1998.73(24).
216.Romanov,S.G.,A.V.Fokin,and R.M.D.L.Rue,Anisotropic photoluminescence in incomplete three-dimensional photonic band-gap environments.Appl.Phys.Lett,1999.74(13).
217.Romanov,S.G.,et al.,Photonic band-gap effects upon the light emission from a dye-polymer-opal composite.Appl.Phys.Lett,1999.75(8).
218.Yoshino,K.,et al.,Amplified spontaneous emission and lasing in conducting polymers and fluorescent dyes in opals as photonic crystals.Appl.Phys.Lett,1999.74(18).
219.Romanov,S.G.,et al.,Light emission in a directional photonic bandgap Physica status solidi(a),2003.197(3).
220.Romanov,S.G.,et al.,Emission stimulation in a directional band gap of a CdTe-loaded opal photonic crystal.Phys.Rev.E,2004.69(4).
221.Petrov,E.P.,et al.,Spontaneous Emission of Organic Molecules Embedded in a Photonic Crystal.Phys.Rev.Lett.,1998.81(1).
222.Megens,M.,et al.,Fluorescence lifetimes and linewidths of dye in photonic crystals.Phys.Rev.E,1999.59(6).
223.Li,Z.-Y.and Z.-Q.Zhang,Weak photonic band gap effect on the fluorescence lifetime in three-dimensional colloidal photonic crystals.Phys.Rev.B,2001.63(12):p.5.
224.Wang,X.,et al.,Decay Distribution of Spontaneous Emission from an Assembly of Atoms in Photonic Crystals with Pseudogaps.Physical Review Letters,2002.88(9):p.93902.
225.Zhu,S.,et al.,Spontaneous emission in three-dimensional photonic crystals with an incomplete band gap.Europhysics Letters,2003.62(2):p.210-216.
226.Lodahl,P.,et al.,Controlling the dynamics of spontaneous emission from quantum dots by photonic crystals.Nature,2004.430(7000):p.654-657.
227.Lousse,V.,et al.,Atomic radiation rates in photonic crystals.Phys.Rev.B,2001.64(20):p.4.
228.Koenderink,A.F.and W.L.Vos,Light Exiting from Real Photonic Band Gap Crystals is Diffuse and Strongly Directional Phys.Rev.Lett.,2003.91(21):p.4.
229.Barth,M.,A.Gruber,and F.Cichos,Spectral and angular redistribution of photoluminescence near a photonic stop band.Phys.Rev.B,2005.72(8).
230.Busch,K.,et al.,Radiating dipoles in photonic crystals.Phys.Rev.E,2000.62(3).
231.Dirac,P.,The Quantum Theory of the Emission and Absorption of Radiation.Proceedings of the Royal Society of London.Series A,Containing Papers of a Mathematical and Physical Character (1905-1934),1927.114(767):p.243-265.
232.Fermi,E.,Quantum Theory of Radiation.Reviews of Modern Physics,1932.4(1):p.87-132.
233.Veisskopf,V.and E.Wigner,Berechnung der natuerlichen Linienbreite auf Grund der Diracschen Lichttheorie Mit,1930.
234.蒋美萍,一维光子晶体的光子带隙,光学双稳态和相位共轭波.2006.
235.李明宇,基于薄膜技术的光子晶体理论与器件研究.2006.
236.Leung,K.M.and Y.F.Liu,Photon band structures:the plane-wave method Physical Review B (Condensed Matter),1990.41(14):p.10188-10190.
237.Zhang,Z.and S.Satpathy,Electromagnetic wave propagation in periodic structures:Bloch wave solution of Maxwell's equations.Phys.Rev.Lett.,1990.65(21):p.2650-2653.
238.Pendry,J.B.,Calculating photonic band structure.Journal of Physics:Condensed Matter,1996.8(9):p.1085-1108.
239.Leung,K.M.and Y.F.Liu,Full vector wave calculation of photonic band structures in face-centered-cubic dielectric media.Physical Review Letters,1990.65(21):p.2646-2649.
240.肖三水,光子晶体计算方法和设计的研究.2004,浙江大学博士学位论文.p.36-38.
241.Ho,K.M.,C.T.Chan,and C.M.Soukoulis,Existence ofa photonic gap in periodic dielectric structures.Phys.Rev.Lett.,1990.65(25).
242.Shen,L.F.and S.L.He,Analysis for the convergence problem of the plane-wave expansion method for photonic crystals.Journal of the Optical Society of America a-Optics Image Science and Vision,2002.19(5):p.1021-1024.
243.Satpathy,S.,Z.Ze,and M.R.Salehpour,Theory of photon bands in three-dimensional periodic dielectric structures.Physical Review Letters,1990.64(11):p.1239-1242.
244.McCall,S.L.,et al.,Microwave propagation in two-dimensional dielectric lattices.Physical Review Letters,1991.67(15):p.2017-2020.
245.Maradudin,A.A.and A.R.McGurn,Photonic band structure of a truncated two-dimensional,periodic dielectric medium.Journal of the Optical Society of America B(Optical Physics),1993.10(2):p.307-313.
246.Lidorikis,E.,et al.,Tight-binding parametrization for photonic band gap materials.Physical Review Letters,1998.81(7):p.1405-1408.
247.Sailor,W.C.,F.M.Mueller,and P.R.Villeneuve,Augmented-plane-wave method for photonic band-gap materials.Physical Review B,1998.57(15):p.8819-8822.
248.Kuzmiak,V.and A.A.Maradudin,Distribution of electromagnetic field and group velocities in two-dimensional periodic systems with dissipative metallic components.Physical Review B (Condensed Matter),1998.58(11):p.7230-7251.
249.Pendry,J.B.and A.MacKinnon,Calculation of photon dispersion relations.Physical Review Letters,1992.69(19):p.2772-2775.
250.Yeh,P.,A.Yariv,and H.Chi-Shain,Electromagnetic propagation in periodic stratified media.I.General theory.Journal of the Optical Society of America,1977.67(4):p.423-438.
251.高本庆,时域有限差分法.1995,北京:国防工业出版社.
252.Villeneuve,P.R.,S.Fan,and J.D.Joannopoulos,Microcavities in photonic crystals:mode symmetry,tunability,and coupling efficiency.Physical Review B(Condensed Matter),1996.54(11):p.7837-7842.
253.Ward,A.J.and J.B.Pendry,A program for calculating photonic band structures and Green's functions using a non-orthogonal FDTD method Computer Physics Communications,1998.112(1):p.23-41.
254.Ward,A.J.and J.B.Pendry,Calculating photonic Green's functions using a nonorthogonal finite-difference time-domain method Physical Review B-Condensed Matter,1998.58(11):p.7252-7259.
255.Ziolkowski,R.W.,Maxwellian material based absorbing boundary conditions.Computer Methods in Applied Mechanics and Engineering,1999.169(3-4):p.237-262.
256.Qiu,M.and S.L.He,FDTD algorithm for computing the off-plane band structure in a two-dimensional photonic crystal with dielectric or metallic inclusions.Physics Letters A,2001.278(6):p.348-354.
257.Qiu,M.and S.L.He,A nonorthogonal finite-difference time-domain method for computing the band structure of a two-dimensional photonic crystal with dielectric and metallic inclusions.Journal of Applied Physics,2000.87(12):p.8268-8275.
258.Prescott,D.,Reflection analysis of FDTD boundary conditions.Ⅱ.Berenger's PMLabsorbing layers,leee Transactions on Microwave Theory and Techniques,1997.45(8 Part 1):p.1171-1178.
259.Hagness,S.and A.Taflove,Computational electrodynamics:The finite-difference time-domain method.Norwood,MA:Artech House,2000.
260.Chan,C.T.,Q.L.Yu,and K.M.Ho,Order-/b N/ spectral method for electromagnetic waves.Physical Review B(Condensed Matter),1995.51(23):p.16635-16642.
261.Bendickson,J.M.,J.P.Dowling,and M.Scalora,Analytic expressions for the electromagnetic mode density in finite,one-dimensionaL photonic band-gap structures.Physical Review E (Statistical Physics,Plasmas,Fluids,and Related Interdisciplinary Topics),1996.53(4):p.4107-4121.
262.Dowling,J.P.,Parity,time-reversal and group delay for inhomogeneous dielectric slabs:Application to pulse propagation in finite,one-dimensional,photonic bandgap structures.Ice Proceedings-Optoelectronics,1998.145(6):p.420-435.
263.Korringa,J.,On the calculation of the energy of a Bloch wave in a metal.Physica,1947.13:p.392.
264.Kohn,W.and N.Rostoker,Solution of the Schr?dinger equation in periodic lattices with an application to metallic lithium.Physical Review,1954.94(5):p.1111-1120.
265.Leung,K.M.,Defect modes in photonic band structures:a Green's function approach using vector Wannier functions.Journal of the Optical Society of America B(Optical Physics),1993.10(2):p.303-306.
266.Algul,H.G.,et al.,Impurity modes from impurity clusters in photonic band structures.Journal of Physics:Condensed Matter,1995.7(2):p.447-462.
267.Sakoda,K.and H.Shiroma,Numerical method for localized defect modes in photonic lattices.Physical Review B(Condensed Matter),1997.56(8):p.4830-4835.
268.Lie-Ming,L.,Z.Zhao-Qing,and Z.Xiangdong,Transmission and absorption properties of two-dimensional metallic photonic-band-gap materials.Physical Review B(Condensed Matter),1998.58(23):p.15589-15594.
269.Martin,O.J.F.,et al.,Generalized field propagator for arbitrary finite-size photonic band gap structures.Physical Review Letters,1999.82(2):p.315-318.
270.Bayindir,M.,B.Temelkuran,and E.Ozbay,Tight-binding description of the coupled defect modes in three-dimensional photonic crystals.Physical Review Letters,2000.84(10):p.2140-2143.
271.Dobrzynski,L.,Interface-response theory of electromagnetism in dielectric superlattices.Physical Review B(Condensed Matter),1988.37(14):p.8027-8033.
272.Steckl,A.,et al.Challenges and Opportunities for Biophotonic Devices in the Liquid State and the Solid State.2006.
273.Dyson,J.,Circular and Spiral Gratings.Proc.Roy.Soc.(London) 1958.A248:p.93-106.
274.Tichenor,D.and R.N.Bracewell,Fraunhofer diffraction of concentric annular slits.Journal of the Optical Society of America,1973.63(12):p.1620-1622.
275.Leith,E.N.,et al.,Correlation image formation with an axicon.Journal of the Optical Society of America,1980.70(2):p.141-145.
276.Wu,H.M.,et al.Circular gratings based on binary optics and their diffraction computer simulation-art.no.603419.in 20th Congress of the International-Commission-for-Optics.2005.Changchun,China.
277.He,X.D.,K.Y.Lu,and Y.Q.Gong.Fabrication for micro circular gratings and arrays based on binary optical methods with DMD system-art.no.68322J.in Conference on Holography and Diffractive Optics Ⅲ.2007.Beijing,China.
278.Shakher,C.,et al.,Collimation Testing with Circular Gratings.Appl.Opt.,2001.40(8).
279.Sriram,K.V.,M.P.Kothiyal,and R.S.Sirohi,Collimation testing with linear dual-field,spiral,and evolute gratings:a comparative study.Appl.Opt.,1994.33(31).
280.Dyson,J.,Circular and spiral diffraction gratings.1958.
281.Colautti,C.,et al.,Lau effect using circular gratings.Appl.Opt,1987.26:p.2061-2062.
282.Ru,Q.S.,N.Ohyama,and T.Honda,Fringe scanning radial shearing interferometry with circular gratings.Optics Communications,1989.69(3-4):p.189-192.
283.Ronchi.,V.,Das Okularinterferometr und das Objektivinterferometr bei der Auflosung der Doppelsterne.Z.Phy.,1926.37:p.732-757.
284.Harke,B.,et al.,Resolution scaling in STED microscopy.Optics Express,2008.16(6):p.4154-4162.
285.McGloin,D.,V.Garces-Chavez,and K.Dholakia,Diffraction-free Bessel beams expand the power of optical tweezers,spie's oe magazine,2003:p.42-45.
286.韩瑛,et al.,环形光栅的Fraunhofer衍射.石油化工高等学校学报,1994.7(4).
287.Ditlbacher,H.,et al.,Fluorescence imaging of surface plasmon fields.Appl.Phys.Lett,2002.80(3).
288.刘海霞,基于重铬酸盐明胶的彩色反射全息图的制作方.2006,中国海洋大学.
289.Xiong,L.and B.Peng,Effect of the content of ammonium dichromate in dichromated gelatin on Cr 2P～3～/～2 x-ray photoelectron spectroscopy.Applied Optics,1999.38:p.279-283.
290.周海宪and程云芳,全息光学—设计、制造和应用.2006:化学工业出版社.
291.Naik,G.,A.Mathur,and S.Pappu,Dichromated gelatin holograms:an investigation of their environmental stability.Appl.Opt,1990.29:p.5292-5297.
292.于美文,光全息学及其应用.1996:北京理工大学出版社.
293.徐大雄,实用全息摄影.1989:北京邮电学院出版社.
294.MIT.MIT Photonic-Bands.2008;Available from:http://ab-initio.mit.edu/wiki/index.php/MIT_Photonic_Bands.
295.Zondervan,R.,et al.,Photobleaching of rhodamine 6G in poly(vinyl alcohol) at the ensemble and single-molecule levels.Journal of Physical Chemistry A,2004.108(10):p.1657-1665.
296.Liu,X.-D.,et al.,Conservative form of the density of states of a photonic crystal with a pseudogap.Phys.Rev.E,2003.68(036610):p.5.
297.Kosaka,H.,et al.,Superprism phenomena in photonic crystals.Phys.Rev.B,1998.58(16).
298.Kosaka,H.,et al.,Photonic crystals for micro lightwave circuits using wavelength-dependent angular beam steering.Appl.Phys.Lett,1999.74(10).
299.Etchegoin,P.and R.T.Phillips,Photon focusing,internal diffraction,and surface states in periodic dielectric structures.Phys.Rev.B,1996.53(19).
300.Mizuguchi,J.,et al.,Focusing of light in a three-dimensional cubic photonic crystal.Phys.Rev.B,2003.67(7):p.7.
301.Chigrin,D.N.,Radiation pattern of a classical dipole in a photonic crystal:Photon focusing.Phys.Rev.E,2004.70(5):p.12.
302.Raether,H.,Surface Plasmons on Smooth and Rough Surfaces and on Gratings.1986.
303.Yoichi,O.and S.Taikei,Numerical analysis of surface plasmons excited on a thin metal grating Journal of Zhejiang University Science A 2006.7.
304.Miles.a push and a twist in a beam light.2003;Available from:http://www.physics.gla.ac.uk/Optics/Miles/.
305.Song,D.H.,et al.,Self-trapping of optical vortices in waveguide lattices with a self-defocusing nonlinearity.Optics Express,2008.16(14):p.10110-10116.
306.Mair,A.,et al.,Entanglement of the orbital angular momentum states of photons.Nature,2001.412(6844):p.313-316.
307.XuXingsheng,et al.,Multi-photon-absorption-induced birefringent grating in azobenzene-doped polymethyl methacrylate optical fibres.Journal of Optics A,2002.4.
308.Yan,D.,et al.,Effect of Ag Nanoparticles on Optical Properties of R6G Doped PMMA Films.Chinese Physics Letter,2007.24(4):p.954-956.
309.初国强,刘星元,王立军,R6G-MPMMA型固体染料激光器的研制.激光与红外,2001.
2.石顺祥,陈国夫,赵卫,非线性光学.2003:西安:西安电子科技大学出版社.
3.钱士雄 朱荣毅,非线性光学.2001:复旦大学出版社.
4.叶佩弦,非线性光学.1999:北京:中国科学技术出版社.
5.沈元壤 顾世杰,非线性光学原理.1987:科学出版社.
6.Born,M.,E.Wolf,and A.Bhatia,Principles of optics.1980:Pergamon press New York.
7.Harris,S.E.,Electromagnetically induced transparency.Physics Today,1997.50(7):p.36-42.
8.Lukin,M.D.,et al.,Spectroscopy in Dense Coherent Media:Line Narrowing and Interference Effects.Physical Review Letters,1997.79(16):p.2959.
9.Hau,L.V.,et al.,Light speed reduction to 17 metres per second in an ultracold atomic gas.Nature,1999.397(6720):p.594-598.
10.Zibrov,A.S.,et al.,Experimental Demonstration of Laser Oscillation without Population Inversion via Quantum Interference in Rb.Physical Review Letters,1995.75(8):p.1499.
11.Akulshin,A.M.,S.Barreiro,and A.Lezama,Electromagnetically induced absorption and transparency due to resonant two-field excitation of quasidegenerate levels in Rb vapor.Physical Review A,1998.57(4):p.2996.
12.New,G.H.C.and J.F.Ward,Optical Third-Harmonic Generation in Gases.Physical Review Letters,1967.19(10):p.556.
13.G(u|¨)nter,P.and J.Huignard,Photorefractive Materials and Their Applications.1989:Springer.
14.吴强,若干弱光非线性光学效应及其应用的研究.南开大学博士论文,2006.
15.Monremezzani,G.,Holography and optical phase conjugation 2002.
16.Eldada,L.Telecom optical componentry:past,present,future.2001.
17.Yao,H.,O.Radmer,and C.Zawadzki,Polymer Waveguide Devices:Status and Trends.2002,Fraunhofer Institute for Communication Technology,Heinrich-Hertz-Institut.
18.Ma,H.,A.Jen,and L.Dalton,Polymer-based optical waveguides:materials,processing,and devices.Advanced Materials,2002.14(19):p.1339-1365.
19.Hagen,R.and T.Bieringer,Photoaddressable polymers for optical data storage.Advanced Materials,2001.13(23):p.1805-1810.
20.Eickmans,J.,et al.,Photoaddressable polymers:a new class of materials for optical data storage and holographic memories.Jpn.J.Applo Phys,1999.38:p.1835-1836.
21.Wong,C.,Polymers for electronic andphotonic applications.1993:Academic Press.
22.Garner,S.,et al.,Vertically integrated waveguide polarization splitters usingpolymers,leee Photonics Technology Letters,1999.11(7):p.842-844.
23.Zhou,M.,Low-loss polymeric materials for passive waveguide components in fiber optical telecommunication.Optical Engineering,2002.41:p.1631-1643.
24.叶佩弦 司金海,有机聚合物的非线性光学.物理,2000.29:p.344-348.
25.Bloembergen,N.,Nonlinear optics of polymers:fundamentals and applications.Journal of Nonlinear Optical Physics and Materials,1996.5(1):p.1-7.
26.禹忠 汪敏强,光通讯波段聚合物光波导材料的研究进展.化学通报,2001.64(001):p.5-10.
27.Johnson,S.A.,P.J.Ollivier,and T.E.Mallouk,Ordered mesoporous polymers of tunable pore size from colloidal silica templates.Science,1999.283(5404):p.963-965.
28.Kageyama,K.,J.Tamazawa,and T.Aida,Extrusion polymerization:catalyzed synthesis of crystalline linear polyethylene nanofibers within a mesoporous silica.Science,1999.285(5436):p.2113.
29.Smith,A.,et al.,High-energy cryogenic blending and compatibilizing of immiscible polymers.Advanced Materials,1999.11(15).
30.Kobayashi,T.,et al.,Relaxation dynamics of photoexcitations in polydiacetylenes and polythiophene.Journal of the Optical Society of America B(Optical Physics),1990.7(8):p.1558-1578.
31.Chen,A.G.and D.J.Brady,Real-time holography in azo-dye-doped liquid crystals.OPTICS LETTERS,1992.17(6):p.441-443.
32.Blau,W.,et al.,Reverse saturable absorption in tetraphenylporphyrins.Optics Communications,1985.56(1):p.25-29.
33.Tutt,L.W.and A.Kost,Optical limiting performance of C/sub 60/and C/sub 70/solutions.Nature, 1992.356(6366):p.225-226.
34.Charra,F.,et al.,Picosecond light-induced noncentrosymmetry in a dye solution.Physical Review Letters,1992.68(16):p.2440-2443.
35.Charra,F.,et al.,Light-induced second-harmonic generation in azo-dye polymers.Optics Letters,1993.18(12):p.941-943.
36.Si-De,D.,G.Shang-Qing,and X.Zhi-Zhan,Generating fractional revivals from a simple optical system.Optics Communicationst Optics Communications,1997.133(1-6):p.147-52.
37.Si-de,D.,et al.,Production of two-mode optical Schrodinger catlike states via Kerr nonlinearity.Optics Communications Optics Communications,1997.138(1-3):p.193-9.
38.Rodenberger,D.C.,J.R.Heflin,and A.F.Garito,Excited-state enhancement of optical nonlinearities in linear conjugated molecules.Nature,1992.359(6393):p.309-311.
39.李英兰 等,C60-PMMA.复合膜的纳米结构研究.无机材料学报,2002.
40.Qiuo,R.J.,Fabrication of AQ/PMMA Photopolymer and Its Mechanism for Forming Volume Gratings 2005.
41.Lundquist,P.M.,et al.,Organic Glasses.A New class of Photorefractive Materials.Science,1996.274.
42.Andreas,B.,et al.,Photorefractive lithography with synchrotron light in polymethyl methacrylate.Appl.Phys.Lett,2003.83.
43.冯忠耀 等,偶氮苯共聚PMMA薄膜的老致双折射特性研究.光子学报,2004.33.
44.付申成 等、泵浦光偏振态的改变对So/PMMA薄膜光致双折射的影响.物理实验,2005.25.
45.Wochnowski,C.,S.Meter,and F.Vollertsen,Surface topography of planar PMMA grating structures produced by the UV-laser based phase mask method.Microsyst Technol,2006.12.
46.Rupp,R.A.,et al.,Bleaching kinetics of indoly-benzylfulgimide in PMMA.physica status solidi(b),2007.244(4):p.1363-1375.
47.马占镖,甲基丙烯酸树酯及其应用.2001:化学工业出版社.
48.珊瑚化工厂编著,有机玻璃及同类聚合物.1975:上海人民出版社.
49.Plexiglas Acrylic Sheet Family.2008;Available from:http://www.plexiglas.com/acrylicsheet/acrvlicsheetfamily#9.
50.Kutz,M.,Handbook of materials selection.2002.
51.Pepper,T.Seeing the Light,Illumination.2008;Available from:http://www.terrvpepper.com/lights/closeups/illumination/index.htm.
52.Zonk and Jcatcw.Plexiglass-like DVD to Hold 1TB of Data 2007;Available from:http://slashdot.org/article.pl?sid=07/12/21/204208&from=rss.
53.Hamzah,T.,Y.Bhd,and R.Hyde,Light Pipes:An Innovative Design Device for Bringing Natural Daylight and Illumination into Buildings with Deep Floor Plan(Patent Applied).
54.Lighting up your workplace—Queensland student pipes light to your office cubicle.2005;Available from:http://www.scienceinpublic.com/freshinnovators/2005/Veronica/veronicagarciahansen.htm.
55.Miller,Review of Orthopaedics.p.129.
56.in American Journal of Neuroradiology.2002.p.601-604.
57.Cabak,I.,Transient Radiation in Polymethyl Methacrylate.Czechoslovak Journal of Physics,1969.19(4):p.520-&.
58.Cabak,I.,Structure of Transient Radiation Generation by Electrons Deep in Polymethyl Methacrylate.Czechoslovak Journal of Physics,1969.19(10):p.1290-&.
59.Friedman,E.A.,A.J.Ritger,and R.D.Andrews,Brillouin Scattering Near Glass Transition of Polymethyl Methacrylate.Journal of Applied Physics,1969.40(11):p.4243-&.
60.Chen,P.J.,M.E.Gurtin,and E.K.Walsh,Shock Amplitude Variation in Polymethyl Methacrylate for Fixed Values of Strain Gradient.Journal of Applied Physics,1970.41(8):p.3557-&.
61.Choy,C.L.,R.G.Hunt,and G.L.Salinger,Specific Heat of Amorphous Polymethyl Methacrylate and Polystyrene Below 4-Degrees K.Journal of Chemical Physics,1970.52(7):p.3629-&.
62.Kimmel,R.M.and D.R.Uhlmann,Effects of High Pressure on Amorphous Polymers-Densification of Polymethyl Methacrylate.Journal of Applied Physics,1970.41(7):p.2917-&.
63.Kimmel,R.M.and D.R.Uhlmann,Effects of High Pressure on Amorphous Polymers-Densification of Polymethyl Methacrylate 2.Annealing of Densified Polymethyl Methacrylate.Journal of Applied Physics,1971.42(5):p.1892-&.
64.Kimmel,R.M.and D.R.Uhlmann,Effects of High Pressure on Amorphous Polymers-Densification of Polymethyl Methacrylate 3.Thermodynamic Properties of Densified Polymethyl Methacrylate.Journal of Applied Physics,1971.42(12):p.4917-&.
65.Kimmel,R.M.and D.R.Uhlmann,Activation-energy Spectra for Retraction of Hot-stretched Polystyrene and Shear Creep in Polymethyl Methacrylate.Journal of Applied Physics,1971.42(12):p.4926-&.
66.Stephens,R.B.,G.L.Salinger,and Cieloszy.Gs,Thermal-Conductivity and Specific-Heat of Non-Crystalline Solids-Polystyrene and Polymethyl Methacrylate.Physics Letters A,1972.A 38(3):p.215-&.
67.Nunziato,J.W.and K.W.Schuler,Evolution of Steady Shock-waves on Polymethyl Methacrylate.Journal of Applied Physics,1973.44(10):p.4774-4773.
68.Spells,S.J.and I.W.Shepherd,Low-Frequency Raman Dides in Solid Amprohous Polystyrene and Polymethyl Methacrylate.Journal of Chemical Physics,1977.66(4):p.1427-1433.
69.Liu,W.T.,et al.,Poly(methyl Methacrylate Resist Sensitivity Enhancement in A-Ray-Lithography by Insitu Polymerization.Applied Physics Letters,1984.44(10):p.973-975.
70.Mladenov,G.M.,B.Emmoth,and M.Braun,Some Effects at Ion-Beam Modification of Polymethyl Methacrylate.Vacuum,1984.34(5):p.551-553.
71.Muto,J.and Y.Kobayashi,Photobleaching Behaviors of Rhodamine-6G Diffused in Polymethyl Methacrylate and in the Copolymer of Methyl-Methacrylate with Methacrylic-Acid.Physica Status Solidi a-Applied Research,1984.84(1):p.K29-K33.
72.Marotz,J.,Holographic Storage in Sensitized Polymethyl Methacrylate Blocks.Applied Physics B-Photophysics and Laser Chemistry,1985.37(4):p.181-187.
73.Mladenov,G.M.,et al.,Ion-beam Impace and Penetration of Polymethyl Methacrylate.Journal of Applied Physics,1985.58(7):p.2534-2538.
74.Kim,H.,et al.,Ultrafast Imaging of Optical-Damage Dynamics and Laser-Produced Wave-Propagation in Polymethyl Methacrylate.Journal of Applied Physics,1988.64(6):p.2955-2958.
75.Srinivasan,R.and B.Braren,Ultraviolet-Laser Ablation and Etching of Polymethyl Methacrylate Sensitized with an Organic Dopant.Applied Physics a-Materials Science & Processing,1988.45(4):p.289-292.
76.Srinivasan,R.,Photokinetic Etching of Polymethyl Methacrylate Films by Continuous Wave Ultraviolet-laser Radiation.Journal of Applied Physics,1991.70(12):p.7588-7593.
77.Bozhevolnyi,S.I.,I.V.Potemkin,and V.B.Svetovoy,Direct Writing in Polymethyl Methacrylate Filme Using Near-Ultraviolet Light of Ar+ Laser.Journal of Applied Physics,1992.71(4):p.2030-2032.
78.Redel,T.,et al.,Schlieren Diagnostics of Pulsed Electron-Beam Ablation of Polymethyl Methacrylate.Applied Physics a-Materials Science & Processing,1992.54(6):p.520-522.
79.Yang,Z.and H.J.Geise,Preparation and Electrical-Conductivity of Blends Consisting of Modified Wittig Poly(para-Phenylene Vinylene),Iodine and Polystyrene,Polymethyl Methacryalte or Polycarbonate.Synthetic Metals,1992.47(1):p.105-109.
80.Ji,W.,et al.,Resonant Optical Nonlinearity of Fullerenes in Freestanding Polymethyl Methacrylate Films.Journal of Applied Physics,1993.74(6):p.3669-3672.
81.Khare,P.K.,M.S.Gaur,and A.P.Srivastava,Polarization and Depolarization Studies in Polymethyl Methacrylate-Polyvinyl Pyrrolidone Polyblend Films.Indian Journal of Pure &Applied Physics,1993.31(2):p.102-105.
82.May,K.B.,et al.,The Shear-Strength of Polymethyl Methacrylate Bonded to Titanium Partial Denture Framework Material.Journal of Prosthetic Dentistry,1993.70(5):p.410-413.
83.Michaeli,W.,et al.,Broad Range Variation in Surface-Tension by Plasma-Polymerized Coatings on Polymethyl Methacrylate.Surface & Coatings Technology,1993.59(1-3):p.338-341.
84.Srinivasan,R.,Ablation of Polymethyl Methacrylate Films by Pulsed(ns) Ultraviolet and Infrared (9.17-MU-M) Lasers-A Comparative-Study by Ultrafast Imaging.Journal of Applied Physics,1993.73(6):p.2743-2750.
85.Wojcik,A.and S.Muto,Some Optical-Properties of Polymethyl Methacrylate Fibers Doped with Methacrylate Monomers-Derivatives of Anthracene.Nonconducting Photopolymers and Applications,1993.1774:p.58-68.
86.Bozhevolnyi,S.I.and I.V.Potemkin,Dynamica of Ablation of Polymethyl Methacrylate Films by Near-Ultraviolet Light of an Ar+ Laser.Journal of Physics D-Applied Physics,1994.27(1):p.19-24.
87.Guha,S.,et al.,Photoluminescence and Raman Studies of Porous Silicon in Polymethyl Methacrylate.Applied Physics Letters,1994.64(5):p.613-615.
88.Kulanthaisami,S.,et al.,Dielectric and ac Conduction Properties of Solution-Grown Polymethyl Methacrylate Thin-Films.Indian Journal of Pure & Applied Physics,1994.32(9):p.783-785.
89.Marotz,J.,Holographic storage in Sensitized Polymethyl Methacrylate Blocks.Appl.Phys.B,1985.37.
90.Bolle,M.,et al.,Photochemically Assisten Laser Ablation of Doped Polymethyl Methacrylate.Applied Surface Science,1990.46(1-4):p.279-283.
91.Srinivasan,R.,B.Braren,and K.G.Casey,Nature of Incubation Pulses in the Ultraviolet-Laser Ablation of Polymethyl Methacrylate.Journal of Applied Physics,1990.65(4):p.1842-1847.
92.Maker,P.D.and R.E.Muller,Phase Holograms in Polymethyl Methacrylate.Journal of Vacuum Science & Technology B,1992.10(6):p.2516-2519.
93.Li,Z.F.,Z.Y.Yang,and R.F.Xiao,Visible photoluminescence from hydrogenated amorphous carbon films prepared by pulsed laser ablation of polymethyl methacrylate(PMMA).Applied Physics a-Materials Science & Processing,1996.63(3):p.243-246.
94.Varier,G.K.,et al.,Electron density determination of laser induced plasma from polymethyl methacrylate using phaseshift detection technique.Modern Physics Letters B,1996.10(6):p.235-239.
95.Belsare,N.G.and V.S.Deogaonkar,Electrical conductivity of iodine doped polyblend films of polystyrene(PS) and polymethyl methacrylate(PMMA).Indian Journal of Pure & Applied Physics,1998.36(5):p.280-289.
96.Chen,G.H.and G.B.Ma,Crystallization and orientation of C-60 from C-60/polymethyl methacrylate films.Applied Physics Letters,1998.72(25):p.3294-3296.
97.Drechsler,D.,A.Karbach,and H.Fuchs,Nanoindentation on polycarbonate polymethyl methacrylate Blends.Applied Physics a-Materials Science & Processing,1998.66:p.S825-S829.
98.Grebenkin,S.Y.and B.V.Bol'shakov,Light induced cis-trans isomerization of azo compounds in polymethyl methacrylate.Chemical Physics,1998.234(1-3):p.239-248.
99.Ma,G.B.,Y.H.Yang,and G.H.Chen,Anomalous photoluminescence from C-60 polymethyl methacrylate films.Materials Letters,1998.34(3-6):p.377-382.
100.Semkin,N.D.and K.E.Voronov,Conductance of shock-compressed metal-insulator-metal structures based on polymethyl methacrylate.Technical Physics,1998.43(8):p.934-937.
101.Vasil'ev,S.V.,et al.,Changes in the structure of polymethyl methacrylate caused by irradiation with millisecond laser pulses.Quantum Electronics,1998.25(11):p.997-1001.
102.Rajulu,A.V.,et al.,Infrared spectroscopic investigation of polymethyl methacrylate/polyvinyl chloride blend films irradiated by a Si-28 ion beam.Nuclear Instruments & Methods in Physics Research Section B-Beam Interactions with Materials and Atoms,1999.156(1-4):p.195-200.
103.Rubiolo,G.H.,et al.,Characterization of gamma-irradiated polymethyl methacrylate by means of mechanical properties and positron annihilation lifetime spectroscopy.Physical Review B,1999.60(6):p.3792-3798.
104.Fink,D.,et al.,Ion-induced redistribution of palladium in polymethyl methacrylate.Nuclear Instruments & Methods in Physics Research Section B-Beam Interactions with Materials and Atoms,2000.166:p.610-614.
105.Ma,G.B.,et al.,Orientation and photoluminescence of C-60 crystallites in C-60-polymethyl methacrylate films.Thin Solid Films,2000.375(1-2):p.292-295.
106.Popravko,T.S.,Photodepolymerization kinetics in polymethyl methacrylate films above the vitrification temperature.Chemical Physics Reports,2000.18(12):p.2293-2312.
107.范希智,姜良广,分散红54掺杂的PMMA聚合物薄膜全光极化的研究.光学仪器,2003.25.
108.任常愚,孙秀冬,杨志永,聚合物分散液晶PMMA光析变特性的实验研究.液晶与显示,2003.18.
109.范希智,分散橙25掺杂的聚合物PMMA薄膜全光极化的研究.激光与红外,2004.34.
110.范希智,分散红73掺杂的聚合物PMMA薄膜全光极化的研究.光学仪器,2004.26.
111.Jones,G.,et al.,Fluorescence and lasing properties of benzo-fused pyrromethene dyes in polymethyl methacrylate) solid host media.Solid State Lasers Xi,2002.4630:p.65-74.
112.Mekaru,H.,Y.Utsumi,and T.Hattori,Effects of synchrotron radiation spectrum energy on polymethyl methacrylate photosensitivity to deep X-ray lithography.Japanese Journal of Applied Physics Part 1-Regular Papers Short Notes & Review Papers,2003.42(6B):p.3807-3810.
113.Bai,M.and F.Pease,Electron beam induced conductivity in polymethyl methacrylate,polyimide,and SiO2 thin films.Journal of Vacuum Science & Technology B,2004.22(6):p.2907-2911.
114.Dutta,P.and S.K.De,Electrical properties of polypyrrole doped with beta-naphthalenesulfonicacid and polypyrrole-polymethyl methacrylate blends(vol 139,pg 201, 2003).Synthetic Metals,2004.143(1):p.141-141.
115.Assael,M.J.,et al.,Thermal conductivity of polymethyl methacrylate(PMMA) and borosilicate crown glass BK7.International Journal of Thermophysics,2005.26(5):p.1595-1605.
116.Elzein,T.,et al.,A model of chain folding in Polycaprolactone-b-Polymethyl Methacrylate diblock copolymers.Thin Solid Films,2005.483(1-2):p.388-395.
117.Klemberg-Sapieha,J.E.,et al.,Tailoring the adhesion of optical films on polymethyl-methacrylate by plasma-induced surface stabilization.Thin Solid Films,2005.476(1):p.101-107.
118.Philip,K.A.,et al.,Photoacoustic study on the photostability of polymethyl methacrylate films doped with Rhodamine 6G-Rhodamine B dye mixture system.Journal of Physics D-Applied Physics,2005.38(16):p.2904-2909.
119.Zhu,X.L.,et at.,Analysis of x-ray photoelectron spectroscopy of polymethyl methacrylate etched by a KrFexcimer laser.Chinese Physics Letters,2005.22(6):p.1526-1529.
120.Choi,H.W.,et al.,Effects of BaTiO3 on dielectric behavior of BaTiO3-Ni-polymethyl methacrylate composites.Applied Physics Letters,2006.89(13).
121.Yuan,D.J.and S.Das,Experimental and theoretical analysis of direct-write laser micromachining of polymethyl methacrylate by CO2 laser ablation.Journal of Applied Physics,2007.101(2).
122.Capozzi,C.J.,et al.,Impedance spectroscopy and optical characterization of polymethyl methacrylate/indium tin oxide nanocomposites with three-dimensional Voronoi microstructures.Journal of Applied Physics,2008.104(11).
123.Capozzi,C.J.,et al.,Impedance spectroscopy and optical Characterization of polymethyl methacrylate/indium tin oxide nanocomposites with three-dimensional Voronoi microstructures.Journal of Applied Physics,2008:p.114902(10 pp.).
124.Dixit,M.,et al.,Mechanical characterization of polymethyl methacrylate and polycarbonate blends.AIP Conference Proceedings,2008:p.311-15.
125.Dixit,M.,et al.,Mechanical characterization of polymethyl methacrylate and Polycarbonate blends.Thermophysical Properties of Materials and Devices,2008:p.311-315.
126.Dubey,P.K.,R.Bajpai,and J.M.Keller,Structural,morphological and microhardness characterization in polymer complex of laser dye rhodamine(Rh6G) doped polymethyl methacrylate.Microsystem Technologies-Micro-and Nanosystems-Information Storage and Processing Systems,2008.14(8):p.1165-1171.
127.Fan,R.W.,et al.,Solid state dye lasers based on coumarin 440 and pyrromethene 567 codoped polymethyl methacrylate.Chinese Physics Letters,2008.25(5):p.1881-1883.
128.Samantaray,C.B.and J.T.Hastings,The effect of thin metal overlayers on the electron beam exposure of polymethyl methacrylate.Journal of Vacuum Science & Technology B,2008.26(6):p.2300-2305.
129.Suwanprateeb,J.,W.Suvannapruk,and R.Sanngam,Self-reinforcement of three dimensionally printed polymethyl methacrylate.Polymer Testing,2008.27(6):p.711-716.
130.Thomas,K.J.,et al.,Raman spectra of polymethyl methacrylate optical fibres excited by a 532 nm diode pumped solid state laser.Journal of Optics a-Pure and Applied Optics,2008.10(5).
131.Tsai,T.L.,et al.,Effects of microwave-assisted digestion on decomposition behavior of polymethyl methacrylate(PMMA).Materials Chemistry and Physics,2008.108(2-3):p.382-390.
132.Zhi,C.Y.,et al.,Mechanical and Thermal Properties of Polymethyl Methacrylate-BN Nanotube Composites.Journal of Nanomaterials,2008.
133.Wilson,L.R.and B.S.Richards,Measurement method for photoluminescent quantum yields of fluorescent organic dyes in polymethyl methacrylate for luminescent solar concentrators.Applied Optics,2009.48(2):p.212-220.
134.Franke,H.,Optical recording of refractive-index patterns in doped poly-(methyl methacrylate) films.Appl.Opt.,1984.23.
135.Tomlinson,W.and E.Chandross,Organic photochemical refractive-index image recording systems.Adv.Photochem,1980.12:p.201-281.
136.Rupp,R.A.,J.Hehmann,and R.Matull,Neutron Diffraction from Photoinduced Gratings in a PMMA Matrix Phys.Rev.Lett.,1990.64.
137.Dreb,P.,T.Kardinahl,and H.Franke,Volume Phase Gratings in DMPA-Doped Polymers.Appl.Phys.A,1994.58.
138.Scully,P.J.,S.Caulder,and R.Bartlett,UV-Laser Photo-induced Refractive Index Changes in Poly Methyl Methacrylate and Plastic Optical Fibres for Application as Sensors and Devices.Science-Lasers for Science Facility-Physics,2000.
139.Havermeyer,F.,et al.,Absorption changes under UV illumination in doped PMMA.Appl.Phys.B,2001.72:p.201-205.
140.Junge,K.and G.H(u|¨)bner,Fotografische Chemic.1972:Fotokinoverl.
141.Junge,K.and G.H(u|¨)bner,Fotografische Chemie:A us Theorie und Praxis.1986:Fotokinoverlag.
142.Shankoff,T.,Phase Holograms in Dichromated Gelatin.Appl.Opt,1968.7:p.2101-2105.
143.Sandner,M.R.and C.L.Osborn,Photochemistry of 2,2-dimethoy-2-phenylacetophenone-triplet detection via "spin memory".Tetrahedron Letters,1974.15:p.415-418.
144.Allen,P.and C.Patrick,Kinetics and mechanisms of polymerization reactions.1974:Ellis Horwood.
145.Kukhtarev,N.,et el.,Holographic storage in electrooptic crystals,i.steady state.Ferroelectrics,1979.22(1):p.949-960.
146.Kukhtarev,N.,et el.,Holographic storage in electrooptic crystals.Ⅱ.beam coupling—light amplification.Ferroelectrics,1979.22(1):p.961-964.
147.乔海军,掺杂铌酸锂晶体中弱光非线性光学效应及其应用的研究.2003.
148.Kogelnik,H.,Coupled wave theory for thick hologram gratings.The Bell System Technical Journal,1969.48(9):p.2909-2947.
149.刘思敏,郭儒,许京军,光折变非线性光学及其应用.2004,科学出版社.p.101-102.
150.吴仲康 等,掺铁铌酸锂的光致光衍射.物理学报,1987.36(9):p.1203-1208.
151.Liu,W.H.,et al.,Conical diffraction in LiNbO/sub 3/:Fe crystal.Optics Communications,1987.64(2):p.191-194.
152.Zhang,J.and L.Liu,Optical logical operation and moire pattern.Optics Communications,1988.66(4):p.179-182.
153.Voronov,V.,et al.,Photoinduced light scattering in cerium-doped barium strontium niobate crystals.Quantum Electronics,1980.10(11 ):p.1346-1349.
154.Armitage,D.and J.Thackara.Liquid crystal differentiating spatial light modulators.1986.
155.Kwong,S.,et al.,Phase of phase conjugation and its effect in the double phase-conjugate resonator.J.Opt.Soc.Am.A,1986.3:p.3-1.
156.Staebler,D.and J.Amodei,Coupled-Wave Analysis of Holographic Storage in LiNbO 3.Journal of Applied Physics,1972.43.
157.Sutter,K.and P.Gunter,Photorefractive gratings in the organic crystal 2-cyclooctylamino-5-nitropyridine doped with 7,7,8,8-tetracyanoquinodimethane.J.Opt.Soc.Am.B,1990.7:p.2274-2278.
158.Kahmann,F.,Separate and simultaneous investigation of absorption gratings and refractive-index gratings by beam-coupling analysis.J.Opt.Soc.Am.A,1993.10:p.1562-1569.
159.Kondilenko,V.,et al.,Diffraction of Coupled Waves and Determination of Phase Mismatch Between Holographic Grating and Fringe Pattern.Journal of Modern Optics,1979.26(2):p.239-251.
160.Gehrtz,M.,J.Pinsl,and C.Br?uchle,Sensitive detection of phase and absorption gratings:Phase-modulated,homodyne detected holography.Applied Physics B:Lasers and Optics,1987.43(2):p.61-77.
161.Garcia,P.M.,L.Cescato,and J.Frejlich,Phase-shift measurement in photorefractive holographic recording.Journal of Applied Physics,1989.66(1):p.47-49.
162.Huignard,J.and A.Marrakchi,Coherent signal beam amplification in two-wave mixing experiments with photorefractive BSO crystals.Opt.Commun,1981.38(4):p.249-254.
163.Rupp,R.A.,Microphotometric Investigations of Thick Refractive Index Gratings in Photorefractive Crystals Appl.Phys.B,1986.41.
164.Rupp,R.,A.Maillard,and J.Walter,Impact of the sublinear photoconductivity law on the interpretation of holographic results in BaTiO 3.Applied Physics A:Materials Science &Processing,1989.49(3):p.259-268.
165.Zha,M.Z.,P.Amrhein,and P.Gunter,Measurement of Phase Shift of Photorefractive Gratings by a Novel Method IEEE Journal of Quantum Electronics 1990.26(4).
166.McMichael,I.and P.Yeh,Phase shifts of photorefractive gratings and phase-conjugate waves.Opt.Lett.,1987.12(1).
167.Moskowitz and M.A,A Course in Complex Analysis in One Variable 2002,World Scientific Publishing Co.p.7.
168.Wei,L.,et al.,Photopolymerization-lnduced Two-Beam Coupling and Light-Induced Scattering in Polymethyl Methacrylate.Chinese Physics Letter,2008.25(8):p.2857-2859.
169.Havermeyer,F.,et al.,Nondestructive Resolution of Higher Harmonics of Light-Induced Volume Gratings in PMMA with Cold Neutrons.Phys.Rev.Lett.,1998.80.
170.Ibach,H.and H.L(u|¨)th,Solid-State Physics:An Introduction to Principles of Materials Science.2003:Springer.
171.Anderson,R.,Germanium-Gallium Arsenide Heterojunctions.IBM J.Res.Develop,1960.4:p.283.
172.Kittel,C.,Introduction to solid state physics.7 ed.1996.
173.Mattis,D.,The Many-body Problem:An Encyclopedia of Exactly Solved Models in One Dimension.1993:World Scientific.
174.Inoue,K.and K.Ohtaka,Photonic Crystals:Physics,Fabrication,and Applications.2004:Springer.
175.Martin,R.,Electronic Structure:Basic Theory and Practical Methods.2004:Cambridge University Press.
176.ORDEJON,P.,Order-N tight-binding methods for electronic-structure and molecular dynamics.Computational materials science,1998.12(3):p.157-191.
177.Fermi,E.,Sulla quantizzazione del gas perfetto monoatomico.Rend.Lincei,1926.3:p.145.
178.Dirac,P.,On the Theory of Quantum Mechanics.Proceedings of the Royal Society of London.Series A,1926.112(762):p.661-677.
179.Pankove,J.,Optical Processes in Semiconductors.1975:Courier Dover Publications.
180.FLORESCU,M.,Photonic Crystals-A New Frontier in Modern Optics.2007.
181.Johnson,S.G.,Photonic Crystals-Periodic Surprises in Electromagnetism 2007.
182.Yablonovitch,E.,Inhibited Spontaneous Emission in Solid-State Physics and Electronics.Phys.Rev.Lett.,1987.58(20).
183.John,S.,Strong localization of photons in certain disordered dielectric superlattices.Phys.Rev.Lett.,1987.58(23).
184.Rayleigh,J.,On the remarkable phenomenon of crystalline reflexion described by Prof.Stokes.Phil.Mag,1888.26:p.256-265.
185.Iga,K.,Surface-emitting laser-its birth and generation of new optoelectronics field.IEEE Journal of Selected Topics in Quantum Electronics,2000.6(6):p.1201-1215.
186.Bykov,V.,Spontaneous Emission in a Periodic Structure.Soviet Journal of Experimental and Theoretical Physics,1972.35.
187.Bykov,V.,Spontaneous emission from a medium with a band spectrum.Quantum Electronics,1975.4(7):p.861-871.
188.Yablonovitch,E.,T.Gmitter,and K.Leung,Photonic band structure:The face-centered-cubic case employing nonspherical atoms.Physical Review Letters,1991.67(17):p.2295-2298.
189.Krauss,T.F.,R.M.DeLaRue,and S.Brand,Two-dimensional photonic-bandgap structures operating at near infrared wavelengths.Nature,1996.383(6602):p.699-702.
190.Homepage of Nanoscribe-a spin-off enterprise of the Karlsruhe Institute of Technology 2008;Available from:http://www.nanoscribe.de/.
191.Pieranski,P.,Colloidal Crystals.Contemporary Physics,1983.24(1):p.25-73.
192.Greer,R.T.,Submicron Structure of Amorphous Opal.Nature,1969.224(5225):p.1199-&.
193.Hiltner,P.A.and I.M.Krieger,Diffraction of Light by Ordered Suspensions.Journal of Physical Chemistry,1969.73(7):p.2386-&.
194.Vukusic,P.and J.R.Sambles,Photonic structures in biology.Nature,2003.424(6950):p.852-855.
195.Kinoshita,S.,S.Yoshioka,and K.Kawagoe,Mechanisms of structural colour in the Morpho butterfly:cooperation of regularity and irregularity in an iridescent scale.Proceedings of the Royal Society of London Series B-Biological Sciences,2002.269(1499):p.1417-1421.
196.Kunz,K.and R.Luebbers,The Finite Difference Time Domain Method for Electromagnetics.1993:CRC Press.
197.Taflove,A.and S.Hagness,Computational electrodynamics:the finite-difference time-domain method.2000:Artech House.
198.Johnson,S.G.and J.D.Joannopoulos,Block-iterative frequency-domain methods for Maxwell's equations in aplanewave basis.Optics Express,2001.8(3):p.173-190.
199.Johnson,S.G.,J.D.Joannopoulos,and M.Soljacic.Nanostructures and Computation Wiki.2008;Available from:http://ab-initio.mit.edu/wiki/index.php/Main Page.
200.Joannopoulos,J.D.,R.D.Meade,and J.N.Winn,Photonic Crystals:Molding the Flow of Light.2ed.2008.
201.Park,H.-G.,et al.,Electrically Driven Single-Cell Photonic Crystal Laser.Science,2004.305.
202.Gratzel,M.,Photoelectrochemical cells.Nature,2001.414.
203.Martorell,J.and N.M.Lawandy,Observation of inhibited spontaneous emission in a periodic dielectric structure.Phys.Rev.Lett.,1990.65(15):p.1877-1880.
204.Tong,B.Y.,et al.,Fluorescence-lifetime measurements in monodispersed suspensions of polystyrene particles.J.Opt.Soc.Am.B,1993.10(2):p.356-359.
205.Yamasaki,T.and T.Tsutsui,Spontaneous emission from fluorescent molecules embedded in photonic crystals consisting of polystyrene microspheres.Appl.Phys.Lett,1998.72(16):p.1957-1959.
206.Blanco,A.,et al.,CdS photoluminescence inhibition by a photonic structure.Appl.Phys.Lett,1998.73(13):p.1781-1783.
207.Schriemer,H.P.,et al.,Modified spontaneous emission spectra of laser dye in inverse opal photonic crystals.Physical Review A,2001.63(1).
208.Romanov,S.G.,et al.,Emission in a SnS2 inverted opaline photonic crystal.Appl.Phys.Lett,2001.79(6).
209.Lin,Y.,et al.,Photonic pseudo-gap-based modification of photoluminescence from CdS nanocrystal satellites around polymer microspheres in a photonic crystal Appl.Phys.Lett,2002.81(17).
210.J.Valenta,et al.,Photonic band-gap effects on photoluminescence of silicon nanocrystals embedded in artificial opals.J.Appl.Phys.,2003.93(8).
211.Zhou,J.,et al.,Photoluminescence of ZnS:Mn embedded in three-dimensional photonic crystals of submicron polymer spheres.Appl.Phys.Lett,2000.76(24).
212.Bjorknas,K.,P.Raynes,and S.Gilmour,Effects of molecular shape on the photoluminescence of dyes embedded in a chiral polymer with a photonic band gap.Journal of Materials Science:Materials in Electronics,2003.14.
213.Bechger,L.,P.Lodahl,and W.L.Vos,Directional Fluorescence Spectra of Laser Dye in Opal and Inverse Opal Photonic Crystals.J.Phys.Chem.B,2005.109(20).
214.Vlasov,Y.A.,et al.,Enhancement of optical gain of semiconductors embedded in three-dimensional photonic crystals.Appl.Phys.Lett,1997.71(12).
215.Yoshino,K.,et al.,Observation of inhibited spontaneous emission and stimulated emission of rhodamine 6G in polymer replica of synthetic opal.Appl.Phys.Lett,1998.73(24).
216.Romanov,S.G.,A.V.Fokin,and R.M.D.L.Rue,Anisotropic photoluminescence in incomplete three-dimensional photonic band-gap environments.Appl.Phys.Lett,1999.74(13).
217.Romanov,S.G.,et al.,Photonic band-gap effects upon the light emission from a dye-polymer-opal composite.Appl.Phys.Lett,1999.75(8).
218.Yoshino,K.,et al.,Amplified spontaneous emission and lasing in conducting polymers and fluorescent dyes in opals as photonic crystals.Appl.Phys.Lett,1999.74(18).
219.Romanov,S.G.,et al.,Light emission in a directional photonic bandgap Physica status solidi(a),2003.197(3).
220.Romanov,S.G.,et al.,Emission stimulation in a directional band gap of a CdTe-loaded opal photonic crystal.Phys.Rev.E,2004.69(4).
221.Petrov,E.P.,et al.,Spontaneous Emission of Organic Molecules Embedded in a Photonic Crystal.Phys.Rev.Lett.,1998.81(1).
222.Megens,M.,et al.,Fluorescence lifetimes and linewidths of dye in photonic crystals.Phys.Rev.E,1999.59(6).
223.Li,Z.-Y.and Z.-Q.Zhang,Weak photonic band gap effect on the fluorescence lifetime in three-dimensional colloidal photonic crystals.Phys.Rev.B,2001.63(12):p.5.
224.Wang,X.,et al.,Decay Distribution of Spontaneous Emission from an Assembly of Atoms in Photonic Crystals with Pseudogaps.Physical Review Letters,2002.88(9):p.93902.
225.Zhu,S.,et al.,Spontaneous emission in three-dimensional photonic crystals with an incomplete band gap.Europhysics Letters,2003.62(2):p.210-216.
226.Lodahl,P.,et al.,Controlling the dynamics of spontaneous emission from quantum dots by photonic crystals.Nature,2004.430(7000):p.654-657.
227.Lousse,V.,et al.,Atomic radiation rates in photonic crystals.Phys.Rev.B,2001.64(20):p.4.
228.Koenderink,A.F.and W.L.Vos,Light Exiting from Real Photonic Band Gap Crystals is Diffuse and Strongly Directional Phys.Rev.Lett.,2003.91(21):p.4.
229.Barth,M.,A.Gruber,and F.Cichos,Spectral and angular redistribution of photoluminescence near a photonic stop band.Phys.Rev.B,2005.72(8).
230.Busch,K.,et al.,Radiating dipoles in photonic crystals.Phys.Rev.E,2000.62(3).
231.Dirac,P.,The Quantum Theory of the Emission and Absorption of Radiation.Proceedings of the Royal Society of London.Series A,Containing Papers of a Mathematical and Physical Character (1905-1934),1927.114(767):p.243-265.
232.Fermi,E.,Quantum Theory of Radiation.Reviews of Modern Physics,1932.4(1):p.87-132.
233.Veisskopf,V.and E.Wigner,Berechnung der natuerlichen Linienbreite auf Grund der Diracschen Lichttheorie Mit,1930.
234.蒋美萍,一维光子晶体的光子带隙,光学双稳态和相位共轭波.2006.
235.李明宇,基于薄膜技术的光子晶体理论与器件研究.2006.
236.Leung,K.M.and Y.F.Liu,Photon band structures:the plane-wave method Physical Review B (Condensed Matter),1990.41(14):p.10188-10190.
237.Zhang,Z.and S.Satpathy,Electromagnetic wave propagation in periodic structures:Bloch wave solution of Maxwell's equations.Phys.Rev.Lett.,1990.65(21):p.2650-2653.
238.Pendry,J.B.,Calculating photonic band structure.Journal of Physics:Condensed Matter,1996.8(9):p.1085-1108.
239.Leung,K.M.and Y.F.Liu,Full vector wave calculation of photonic band structures in face-centered-cubic dielectric media.Physical Review Letters,1990.65(21):p.2646-2649.
240.肖三水,光子晶体计算方法和设计的研究.2004,浙江大学博士学位论文.p.36-38.
241.Ho,K.M.,C.T.Chan,and C.M.Soukoulis,Existence ofa photonic gap in periodic dielectric structures.Phys.Rev.Lett.,1990.65(25).
242.Shen,L.F.and S.L.He,Analysis for the convergence problem of the plane-wave expansion method for photonic crystals.Journal of the Optical Society of America a-Optics Image Science and Vision,2002.19(5):p.1021-1024.
243.Satpathy,S.,Z.Ze,and M.R.Salehpour,Theory of photon bands in three-dimensional periodic dielectric structures.Physical Review Letters,1990.64(11):p.1239-1242.
244.McCall,S.L.,et al.,Microwave propagation in two-dimensional dielectric lattices.Physical Review Letters,1991.67(15):p.2017-2020.
245.Maradudin,A.A.and A.R.McGurn,Photonic band structure of a truncated two-dimensional,periodic dielectric medium.Journal of the Optical Society of America B(Optical Physics),1993.10(2):p.307-313.
246.Lidorikis,E.,et al.,Tight-binding parametrization for photonic band gap materials.Physical Review Letters,1998.81(7):p.1405-1408.
247.Sailor,W.C.,F.M.Mueller,and P.R.Villeneuve,Augmented-plane-wave method for photonic band-gap materials.Physical Review B,1998.57(15):p.8819-8822.
248.Kuzmiak,V.and A.A.Maradudin,Distribution of electromagnetic field and group velocities in two-dimensional periodic systems with dissipative metallic components.Physical Review B (Condensed Matter),1998.58(11):p.7230-7251.
249.Pendry,J.B.and A.MacKinnon,Calculation of photon dispersion relations.Physical Review Letters,1992.69(19):p.2772-2775.
250.Yeh,P.,A.Yariv,and H.Chi-Shain,Electromagnetic propagation in periodic stratified media.I.General theory.Journal of the Optical Society of America,1977.67(4):p.423-438.
251.高本庆,时域有限差分法.1995,北京:国防工业出版社.
252.Villeneuve,P.R.,S.Fan,and J.D.Joannopoulos,Microcavities in photonic crystals:mode symmetry,tunability,and coupling efficiency.Physical Review B(Condensed Matter),1996.54(11):p.7837-7842.
253.Ward,A.J.and J.B.Pendry,A program for calculating photonic band structures and Green's functions using a non-orthogonal FDTD method Computer Physics Communications,1998.112(1):p.23-41.
254.Ward,A.J.and J.B.Pendry,Calculating photonic Green's functions using a nonorthogonal finite-difference time-domain method Physical Review B-Condensed Matter,1998.58(11):p.7252-7259.
255.Ziolkowski,R.W.,Maxwellian material based absorbing boundary conditions.Computer Methods in Applied Mechanics and Engineering,1999.169(3-4):p.237-262.
256.Qiu,M.and S.L.He,FDTD algorithm for computing the off-plane band structure in a two-dimensional photonic crystal with dielectric or metallic inclusions.Physics Letters A,2001.278(6):p.348-354.
257.Qiu,M.and S.L.He,A nonorthogonal finite-difference time-domain method for computing the band structure of a two-dimensional photonic crystal with dielectric and metallic inclusions.Journal of Applied Physics,2000.87(12):p.8268-8275.
258.Prescott,D.,Reflection analysis of FDTD boundary conditions.Ⅱ.Berenger's PMLabsorbing layers,leee Transactions on Microwave Theory and Techniques,1997.45(8 Part 1):p.1171-1178.
259.Hagness,S.and A.Taflove,Computational electrodynamics:The finite-difference time-domain method.Norwood,MA:Artech House,2000.
260.Chan,C.T.,Q.L.Yu,and K.M.Ho,Order-/b N/ spectral method for electromagnetic waves.Physical Review B(Condensed Matter),1995.51(23):p.16635-16642.
261.Bendickson,J.M.,J.P.Dowling,and M.Scalora,Analytic expressions for the electromagnetic mode density in finite,one-dimensionaL photonic band-gap structures.Physical Review E (Statistical Physics,Plasmas,Fluids,and Related Interdisciplinary Topics),1996.53(4):p.4107-4121.
262.Dowling,J.P.,Parity,time-reversal and group delay for inhomogeneous dielectric slabs:Application to pulse propagation in finite,one-dimensional,photonic bandgap structures.Ice Proceedings-Optoelectronics,1998.145(6):p.420-435.
263.Korringa,J.,On the calculation of the energy of a Bloch wave in a metal.Physica,1947.13:p.392.
264.Kohn,W.and N.Rostoker,Solution of the Schr?dinger equation in periodic lattices with an application to metallic lithium.Physical Review,1954.94(5):p.1111-1120.
265.Leung,K.M.,Defect modes in photonic band structures:a Green's function approach using vector Wannier functions.Journal of the Optical Society of America B(Optical Physics),1993.10(2):p.303-306.
266.Algul,H.G.,et al.,Impurity modes from impurity clusters in photonic band structures.Journal of Physics:Condensed Matter,1995.7(2):p.447-462.
267.Sakoda,K.and H.Shiroma,Numerical method for localized defect modes in photonic lattices.Physical Review B(Condensed Matter),1997.56(8):p.4830-4835.
268.Lie-Ming,L.,Z.Zhao-Qing,and Z.Xiangdong,Transmission and absorption properties of two-dimensional metallic photonic-band-gap materials.Physical Review B(Condensed Matter),1998.58(23):p.15589-15594.
269.Martin,O.J.F.,et al.,Generalized field propagator for arbitrary finite-size photonic band gap structures.Physical Review Letters,1999.82(2):p.315-318.
270.Bayindir,M.,B.Temelkuran,and E.Ozbay,Tight-binding description of the coupled defect modes in three-dimensional photonic crystals.Physical Review Letters,2000.84(10):p.2140-2143.
271.Dobrzynski,L.,Interface-response theory of electromagnetism in dielectric superlattices.Physical Review B(Condensed Matter),1988.37(14):p.8027-8033.
272.Steckl,A.,et al.Challenges and Opportunities for Biophotonic Devices in the Liquid State and the Solid State.2006.
273.Dyson,J.,Circular and Spiral Gratings.Proc.Roy.Soc.(London) 1958.A248:p.93-106.
274.Tichenor,D.and R.N.Bracewell,Fraunhofer diffraction of concentric annular slits.Journal of the Optical Society of America,1973.63(12):p.1620-1622.
275.Leith,E.N.,et al.,Correlation image formation with an axicon.Journal of the Optical Society of America,1980.70(2):p.141-145.
276.Wu,H.M.,et al.Circular gratings based on binary optics and their diffraction computer simulation-art.no.603419.in 20th Congress of the International-Commission-for-Optics.2005.Changchun,China.
277.He,X.D.,K.Y.Lu,and Y.Q.Gong.Fabrication for micro circular gratings and arrays based on binary optical methods with DMD system-art.no.68322J.in Conference on Holography and Diffractive Optics Ⅲ.2007.Beijing,China.
278.Shakher,C.,et al.,Collimation Testing with Circular Gratings.Appl.Opt.,2001.40(8).
279.Sriram,K.V.,M.P.Kothiyal,and R.S.Sirohi,Collimation testing with linear dual-field,spiral,and evolute gratings:a comparative study.Appl.Opt.,1994.33(31).
280.Dyson,J.,Circular and spiral diffraction gratings.1958.
281.Colautti,C.,et al.,Lau effect using circular gratings.Appl.Opt,1987.26:p.2061-2062.
282.Ru,Q.S.,N.Ohyama,and T.Honda,Fringe scanning radial shearing interferometry with circular gratings.Optics Communications,1989.69(3-4):p.189-192.
283.Ronchi.,V.,Das Okularinterferometr und das Objektivinterferometr bei der Auflosung der Doppelsterne.Z.Phy.,1926.37:p.732-757.
284.Harke,B.,et al.,Resolution scaling in STED microscopy.Optics Express,2008.16(6):p.4154-4162.
285.McGloin,D.,V.Garces-Chavez,and K.Dholakia,Diffraction-free Bessel beams expand the power of optical tweezers,spie's oe magazine,2003:p.42-45.
286.韩瑛,et al.,环形光栅的Fraunhofer衍射.石油化工高等学校学报,1994.7(4).
287.Ditlbacher,H.,et al.,Fluorescence imaging of surface plasmon fields.Appl.Phys.Lett,2002.80(3).
288.刘海霞,基于重铬酸盐明胶的彩色反射全息图的制作方.2006,中国海洋大学.
289.Xiong,L.and B.Peng,Effect of the content of ammonium dichromate in dichromated gelatin on Cr 2P～3～/～2 x-ray photoelectron spectroscopy.Applied Optics,1999.38:p.279-283.
290.周海宪and程云芳,全息光学—设计、制造和应用.2006:化学工业出版社.
291.Naik,G.,A.Mathur,and S.Pappu,Dichromated gelatin holograms:an investigation of their environmental stability.Appl.Opt,1990.29:p.5292-5297.
292.于美文,光全息学及其应用.1996:北京理工大学出版社.
293.徐大雄,实用全息摄影.1989:北京邮电学院出版社.
294.MIT.MIT Photonic-Bands.2008;Available from:http://ab-initio.mit.edu/wiki/index.php/MIT_Photonic_Bands.
295.Zondervan,R.,et al.,Photobleaching of rhodamine 6G in poly(vinyl alcohol) at the ensemble and single-molecule levels.Journal of Physical Chemistry A,2004.108(10):p.1657-1665.
296.Liu,X.-D.,et al.,Conservative form of the density of states of a photonic crystal with a pseudogap.Phys.Rev.E,2003.68(036610):p.5.
297.Kosaka,H.,et al.,Superprism phenomena in photonic crystals.Phys.Rev.B,1998.58(16).
298.Kosaka,H.,et al.,Photonic crystals for micro lightwave circuits using wavelength-dependent angular beam steering.Appl.Phys.Lett,1999.74(10).
299.Etchegoin,P.and R.T.Phillips,Photon focusing,internal diffraction,and surface states in periodic dielectric structures.Phys.Rev.B,1996.53(19).
300.Mizuguchi,J.,et al.,Focusing of light in a three-dimensional cubic photonic crystal.Phys.Rev.B,2003.67(7):p.7.
301.Chigrin,D.N.,Radiation pattern of a classical dipole in a photonic crystal:Photon focusing.Phys.Rev.E,2004.70(5):p.12.
302.Raether,H.,Surface Plasmons on Smooth and Rough Surfaces and on Gratings.1986.
303.Yoichi,O.and S.Taikei,Numerical analysis of surface plasmons excited on a thin metal grating Journal of Zhejiang University Science A 2006.7.
304.Miles.a push and a twist in a beam light.2003;Available from:http://www.physics.gla.ac.uk/Optics/Miles/.
305.Song,D.H.,et al.,Self-trapping of optical vortices in waveguide lattices with a self-defocusing nonlinearity.Optics Express,2008.16(14):p.10110-10116.
306.Mair,A.,et al.,Entanglement of the orbital angular momentum states of photons.Nature,2001.412(6844):p.313-316.
307.XuXingsheng,et al.,Multi-photon-absorption-induced birefringent grating in azobenzene-doped polymethyl methacrylate optical fibres.Journal of Optics A,2002.4.
308.Yan,D.,et al.,Effect of Ag Nanoparticles on Optical Properties of R6G Doped PMMA Films.Chinese Physics Letter,2007.24(4):p.954-956.
309.初国强,刘星元,王立军,R6G-MPMMA型固体染料激光器的研制.激光与红外,2001.
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