北京邮电大学学报

  • EI核心期刊

北京邮电大学学报 ›› 2015, Vol. 38 ›› Issue (1): 1-10.doi: 10.13190/j.jbupt.2015.01.001

• 论文 •    下一篇

物质波动性与粒子性的科学表征及光子与姗子的相互转化

任晓敏   

  1. 北京邮电大学 信息光子学与光通信国家重点实验室, 北京 100876
  • 收稿日期:2014-12-21 出版日期:2015-02-28 发布日期:2015-02-28
  • 作者简介:任晓敏(1958—),男,教授,博士生导师,E-mail:xmren@bupt.edu.cn.
  • 基金资助:

    国家重点基础研究发展计划(973计划)项目(2010CB327600);国家自然科学基金重大国际合作研究项目(61020106007);科技部国际合作计划重点项目及中俄政府间科技合作计划项目(2006DFB11110,CR-B-30);科技部国际科技合作项目(2011DFR11010);中俄NSFC-RFBR联合资助项目(61211120195);高等学校博士学科点专项科研基金资助课题(20130005130001);信息光子学与光通信国家重点实验室自主研究课题;教育部和国家外专局共同设立的"通信与网络核心技术"学科创新引智基地项目(B07005);北京市科学技术委员会设立的"信息光电子学与纳异质结构"北京市国际科技合作基地项目

Scientific Characterization of Wave Property and Particle Property of Matters and the Mutual Conversion between Photons and Symitons

REN Xiao-min   

  1. State Key Laboratory of Information Photonics and Optical Communications, Beijing University of Posts and Telecommunications, Beijing 100876, China
  • Received:2014-12-21 Online:2015-02-28 Published:2015-02-28

摘要:

重新审视了笔者提出的弥聚子论中的全宇观波粒二象性关系的正确性,重点探究了作为微观、介观、宏观实物体抽象化存在的弥聚子的波动性与粒子性的表征问题,并得出了新的结论,即波动性的自然强度应以单位频率所蕴含的能量或单位波数所蕴含的动量来表征,而粒子性的自然强度则应以单位能量所对应的频率或单位动量所对应的波数来表征,进而得出了全宇观量子化变量在趋于宏观极限时取极小值的新见解,并给出了"双极归一化"波动性强度和粒子性强度的定义,从而完善了全宇观波粒二象性关系. 继之,依据上述新见解,对笔者提出的全宇观不确定性原理进行了修正. 同时,深化了对于姗子(笔者预言的一种物质形态)特性的了解,指出了光子与姗子相互转化的必然性和基本规则,导出了全宇观量子化变量上下限之间的定量关系,重新诠释了自发发射、受激发射和受激吸收这3个典型的物理过程,预言了第4个物理过程的存在,并给出了包含这4个物理过程的、拓展了的爱因斯坦关系. 在此基础上,推测了姗子激射和实现"超级慢光"的可能性. 最后,指出了量子场的真空起伏可能是弥聚子几率波行为产生的根源. 上述工作使得弥聚子论进一步臻于完善,同时将光与物质相互作用的理论拓展为光子、姗子与物质相互作用的理论.

关键词: 弥聚子, 量子, 隐波子, 全宇观波粒二象性, 全宇观不确定性原理, 全宇观量子化变量, 姗子, 光子与姗子的相互转化, 姗激发射, 共激发射, 光激吸收, 共激吸收, 光子、姗子与物质的相互作用, 爱因斯坦关系, 量子场, 真空起伏, 几率波

Abstract:

The validity of the expressions of the full-cosmic-scope wave-particle duality in the bivergentum theory previously proposed by the author is reviewed, the wave property and the particle property of bivergentums, the abstracted existences of the real physical objects in microscopic, mesoscopic and macroscopic regimes, are intensively investigated and the new conclusion is worked out, i.e. the natural measure of the wave-property level should be the energy residing in unity frequency or the momentum residing in unity wave-number and the natural measure of the particle-property level should be the frequency corresponding to unit energy and the wave-number corresponding to unit momentum. Moreover, a new point of view that the full-cosmic-scope quantization variable takes its minimum value at the macroscopic limit is proposed and the definitions of the "bipolar-ly normalized" wave-property level as well as the same kind of partical-property level are given so that the understanding of the full-cosmic-scope wave-particle duality is improved. Afterwards, the full-cosmic-scope uncertainty principle proposed by the author is modified according to the new point of view. Meantime, the understanding of symitons (a kind of matters predicted by the author) is deepened, the inevitability and the basic rules of the mutual conversion between photons and symitons are pointed out, the quantitative relation between the upper and lower limits of the full-cosmic-scope quantization variable is derived, three typical physical processes, i.e. the spontaneous emission, the stimulated emission and the stimulated absorption, have been interpreted upon the new basis, the relevant fourth physical process is predicted, and the extended Einstein relations including all the four physical processes are given. Consequently, the probabilities of the "lasing" of symitons and the realization of "super-slow light" are deduced. Finally, it is assumed that the probability-wave behavior of every bivergentum originates from the vacuum fluctuation of quantum field. All these works make the bivergentum theory improved towards perfect, and the theory on the mutual interaction between light and matters is extended to the theory on the multi-factor interaction between photons, symitons and matters.

Key words: bivergentum, quantum, wave-hidum, full-cosmic-scope wave-particle duality, full-cosmic-scope uncertainty principle, full-cosmic-scope quantization variable, symiton, conversion between photon and symiton, symiton-stimulated emission, jointly-stimulated emission, photon-stimulated absorption, jointly-stimulated absorption, multi-factor interaction between photons, symitons and matters, Einstein relation, quantum field, vacuum fluctuation, probability wave

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