全书中的参考文献-修改版前言文献：[1] Dirac P A M. Recollections of an exciting area: History of 20th Century Physics [M]. NewY ork: Academic Press, 1977.[2] Dirac P A M. The Principles of Quantum Mechanics [M]. Oxford: Clarendon Press, 1930.[3] FAN H Y. Recent Development of Dirac?s Representation theor y. In: Feng D H, Klauder J R,Strayer M R. Coherent states[M]. New Y ork: Academic Press, 1994. p153.[4] FAN H Y, ZAIDI H R, KLAUDER J R. New approach for calculating the normally ordered form of squeeze operators[J]. Physical review, 1987, D35 (6):1831--1834.[5] FAN H Y, ZAIDI H R. Squeezing and frequency jump of a harmonic oscillator[J]. 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Recollections of an exciting area: History of 20th Century Physics [M]. NewY ork: Academic Press, 1977, 109.[3] DIRAC P A M. Directions in Physics [M]. New Y ork: John Wiley, 1978.[4] DIRAC P A M. The Physicist?s conception of Nature [M]. New Y ork: Mehra, 1973.[5] LOUISELL W H. Quantum Statistical Properties of Radiation [M]. New Y ork: Wiley, 1973.[6] WICK G. The Evaluation of the Collision Matrix [J]. Physical review, 1950, 80: 268--272.[7] BOGOLYUBOV N N. Lectures on Quantum Statistics (V ol.1)[M]. New Y ork: Gordon andBreach ,1987.[8] Klauder J R and Skagerstam B S. Coherent States. Singapore: World Scientific Publishing Co.,1985[9] GLAUBER R J. The Quantum Theory of Optical Coherence [J]. Physical review, 1963, 130: 2529-2539 ;Coherent and Incoherent States of the Radiation Field[J]. Physical review, 131:2766-2788.[10] WEYL H Z.Quantenmechanik und Gruppentheorie[J]. Zeitschrift für Physik, 1927, 46: 1-46.[11] WIGNER E, On the Quantum Correction For Thermodynamic Equilibrium[J]. 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Optics Communications, 1993, 101: 163-169.[9] OZAKTAS H M, BARSHAN B and Mendlovic D. Convolution, filtering, and multiplexing infractional Fourier domains and their relation to chirp and wavelet transforms[J]. Journal of Optical Society of America, 1994, A11:547-559.[10] See e. g., H. HOCHSTADT H. Integral Equations [M], NewY ork : John Wiley & Sons, 1973.[11] GRADSHTEYN I S, RYZHIK L M. Tables of Integratrals: Series and Products[M]. NewY ork: Academic Press, 1980.[12] GLAUBER R J. The Quantum Theory of Optical Coherence [J]. Physical review, 1963, 130: 2529--2539 ;Coherent and Incoherent States of the Radiation Field[J]. Physical review, 131:2766--2788.[13] E. C. SUDARSHAN. Equivalence of Semiclassical and Quantum Mechanical Descriptions ofStatistical Light Beams[J]. Physical Review Letters, 1963, 10: 277--279.[14] MEHTA C L, Diagonal Coherent-State Representation of Quantum Operators[J]. 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Journal of Optics B: Quantum Semic lassical Optics, 2005, 7:S765–S768.[9] FAN H Y, LU H L. New two-mode coherent-entangled state and its application[J]. Journal ofPhysics A: Mathematical and General, 2004, 37: 10993-11001.第八章文献：[1] FAN H Y, Weyl-Ordered Operator Moyal Bracket by Virtue of Method of Integral Within anWeyl Ordered Product of Operators[J]. Communications in Theoretical Physics, 2006, 45: 245–248.[2] MEHTA C L. Diagonal Coherent-State Representation of Quantum Operators[J]. PhysicalReview Letters, 1967, 18: 752-754.[3] 范洪义. 量子力学表象与变换论——狄拉克符号法进展[M]. 上海：上海科学技术出版社，1997.[4] FAN H Y, Time evolution of the Wigner function in the entangled-state representation[J].Physical Review, 2002, A65: 064102-064105.[5] SONG F J, JUTAMULIA S. Modern Optical Information Processing [M], Beijing:PekingUniversity Press, 1999.[6] FAN H Y, WUNSCHE A. Design of squeezing[J]. Journal of Optics B: Quantum SemiclassicalOptics, 2000, 2: 464-469.第九章文献：[1] KLITZING K VON, DORDA G G, PEPPER M. New Method for High-AccuracyDetermination of the Fine-Structure Constant Based on Quantized Hall Resistance[J].Physical Review Letters, 1980, 45: 494-497.[2] TSUI D C, STORMERANG H L, GOSSARD A C. Two-Dimensional Magnetotransport in theExtreme Quantum Limit[J].Physical Review Letters, 1982, 48: 1559-1562; LAUGHLIN R B.Anomalous Quantum Hall Effect: An Incompressible Quantum Fluid with Fractionally Charged Excitations[J].Physical Review Letters, 1983, 50: 1395-1398; Chakravarty S, Halperin B I and Nelson D R. Low-temperature behavior of two-dimensional quantum antiferromagnets[J]. Physical Review Letters, 1988, 60: 1057-1060; LAUGHLIN R B. The Relationship Between High-Temperature Superconductivity and the Fractional Quantum Hall Effect[J]. Science, 1988, 242: 525-533; LAUGHLIN R B. Nobel Lecture: Fractional quantization[J]. Reviews of Modern Physics, 1999, 71: 863-874.[3] LANDAU L D.Diamagnetismus der Metalle[J]. 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Physical Review Letters, 1988, 60: 1057-1060; LAUGHLIN RB. The Relationship Between High-Temperature Superconductivity and the FractionalQuantum Hall Effect[J]. Science, 1988, 242: 525-533; LAUGHLIN R B. Nobel Lecture: Fractional quantization[J]. Reviews of Modern Physics, 1999, 71: 863-874; TUI D C, STORMER H L, GOSSARD A C. Two-Dimensional Magnetotransport in the Extreme Quantum Limit[J].Physical Review Letters, 1982, 48: 1559-1562; K.von Klitzing, DORDA G, PEPPER M. New Method for High-Accuracy Determination of the Fine-Structure Constant Based on Quantized Hall Resistance[J].Physical Review Letters, 1980, 45: 494-497.[13] CHARKRABORTY T, P. Pietil?inen, The Quantum Hall Effects: ractional and Integral [M],2nd ed. Berlin: Springer-V erlag, 1995; PRANGE R E, GIRVIN S M. Quantum Hall Effects [M], New Y ork: Springer, 1990; STONE M. Quantum Hall Effects [M], Singapore: World Scientific, 1992.第十章文献：[1] LOUISELL W H. 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微观物态及特性The microscopic state and its characteristics作者：罗华林作者单位：陕西省化肥厂退休工人。
地址：陕西省渭南市华县瓜坡镇陕化家属区。
邮编：714100关键词：微观物态，量子，基本粒子，媒介子，强力，弱力，电磁力，万有引力，光子，纠缠态（micro state , quantum , elementary , mediated meson ,brute force , weak force , electromagnetic force ,universal gravitation , photon , entangled state )摘要本文是一部，以真空中媒介子为真实客体，而建立的物质运动与物质结构力学新理论来描述解释微观物态特征性质的文章。
文章分篇着重地论述时间、空间特性、真空中物态分布特性、媒介子的作用过程和它的能量信号传递特性、粒子的自旋和纠缠态、普朗克常数的意义、光的波粒二相性的本质、物质波、带电粒子的运动与辐射、基本粒子和物质结构与构架力的作用、黑洞、物质湮灭与能量、质量和万有引力的本质。
文章在前言中用充分地事实理由说明，现有的物理理论存在问题。
包括经典的牛顿力学、相对论和量子力学以实际客观的必要提出了新物理理论新概念，来描述解释微观物态和宏观现象的关系。
文章在结束语中，总结了这一理论的系统性和贯穿性及普适性。
从科学的历史发展观来看，一切新的正确的东西都是在不断地修正错误来完善正确。
这是一个必然的自然规律。
正确的理论必是具有普适性和指导性。
科学无止境，理论也必将发展。
前言大千世界林林总总的宏观之物，大到星体，小到生命细胞，分子，原子，它们形形色色千奇怪的表现，使人难以想象大自然为何竟是如此之妙。
然而能造成如此之妙境的原因却是微小世界的基本粒子所致。
微观物态是人们感到非常神秘的世界。
自从人们知道了物质是由晶体和分子构成之时，人们就发现了很多在宏观所见不到的现象。
